Outcome 1.1

1.0 Children have a strong sense of identity

This includes their relationships with people, places and things and the actions and responses of others. Identity is not fixed. It is shaped by experiences. When children have positive experiences they develop an understanding of themselves as significant and respected, and feel a sense of belonging. Relationships are the foundations for the construction of identity – ‘who I am’, ‘how I belong’ and ‘what is my influence?’

Unit 501 Communication outcome 1. Unit 4222-305 Promote person centred approaches in health and social care Outcome 1 1. Explain how and why person-centred values must influence all aspects of health and social care work As a care worker I should based on person-centred values. Unit 4222-374 Promote active support Outcome 1 1.1. Compare the characteristics associated with active support and the hotel model in relation to an individual's support.

In early childhood settings children develop a sense of belonging when they feel accepted, develop attachments and trust those that care for them. As children are developing their sense of identity, they explore different aspects of it (physical, social, emotional, spiritual, cognitive), through their play and their relationships.

When children feel safe, secure and supported they grow in confidence to explore and learn.

The concept of being reminds educators to focus on children in the here and now, and of the importance of children’s right to be a child and experience the joy of childhood. Mediahuman youtube downloader 3.9.9.33. Being involves children developing an awareness of their social and cultural heritage, of gender and their significance in their world.

Becoming includes children building and shaping their identity through their evolving experiences and relationships which include change and transitions. Children are always learning about the impact of their personal beliefs and values. Children’s agency, as well as guidance, care and teaching by families and educators shape children’s experiences of becoming.

1.1 Children feel safe, secure, and supported

This is evident, for example, when children:

  • build secure attachments with one and then more familiar educators
  • use effective routines to help make predicted transitions smoothly, sense and respond to a feeling of belonging
  • communicate their needs for comfort and assistance, establish and maintain respectful, trusting relationships with other children and educators
  • openly express their feelings and ideas in their interactions with others
  • respond to ideas and suggestions from others
  • initiate interactions and conversations with trusted educators
  • confidently explore and engage with social and physical environments through relationships and play
  • initiate and join in play and explore aspects of identity through role play

Educators promote this learning, for example, when they:

  • acknowledge and respond sensitively to children’s cues and signals
  • respond sensitively to children’s attempts to initiate interactions and conversations
  • support children’s secure attachment through consistent and warm nurturing relationships
  • support children in times of change and bridge the gap between the familiar and the unfamiliar
  • build upon culturally valued child rearing practices and approaches to learning
  • are emotionally available and support children’s expression of their thoughts and feelings
  • recognise that feelings of distress, fear or discomfort may take some time to resolve
  • acknowledge each child’s uniqueness in positive ways
  • spend time interacting and conversing with each child

1.2 Children develop their emerging autonomy, inter-dependence, resilience and sense of agency

This is evident, for example, when children:

  • demonstrate increasing awareness of the needs and rights of others
  • be open to new challenges and discoveries
  • increasingly co-operate and work collaboratively with others
  • take considered risk in their decision-making and cope with the unexpected
  • recognise their individual achievements and the achievements of others
  • demonstrate an increasing capacity for self-regulation
  • approach new safe situations with confidence
  • begin to initiate negotiating and sharing behaviours
  • persist when faced with challenges and when first attempts are not successful
1.16

Educators promote this learning, for example, when they:

  • provide children with strategies to make informed choices about their behaviours
  • promote children’s sense of belonging, connectedness and wellbeing
  • maintain high expectations of each child’s capabilities
  • mediate and assist children to negotiate their rights in relation to the rights of others
  • provide opportunities for children to engage independently with tasks and play
  • display delight, encouragement and enthusiasm for children’s attempts
  • support children’s efforts, assisting and encouraging as appropriate
  • motivate and encourage children to succeed when they are faced with challenges
  • provide time and space for children to engage in both individual and collaborative pursuits
  • build on the culturally valued learning of individual children’s communities
  • encourage children to make choices and decisions

1.3 Children develop knowledgeable and confident self identities

This is evident, for example, when children:

  • feel recognised and respected for who they are
  • explore different identities and points of view in dramatic play
  • share aspects of their culture with the other children and educators
  • use their home language to construct meaning
  • develop strong foundations in both the culture and language/s of their family and of the broader community without compromising their cultural identities
  • develop their social and cultural heritage through engagement with Elders and community members
  • reach out and communicate for comfort, assistance and companionship
  • celebrate and share their contributions and achievements with others

Educators promote this learning, for example, when they:

  • promote in all children a strong sense of who they are and their connectedness to others – a shared identity as Australians
  • ensure all children experience pride and confidence in their achievements
  • share children’s successes with families
  • show respect for diversity, acknowledging the varying approaches of children, families, communities and cultures
  • acknowledge and understand that children construct meaning in many different ways
  • demonstrate deep understanding of each child, their family and community contexts in planning for children’s learning
  • provide children with examples of the many ways identities and culture are recognised and expressed
  • build upon culturally valued approaches to learning
  • build on the knowledge, languages and understandings that children bring
  • talk with children in respectful ways about similarities and differences in people
  • provide rich and diverse resources that reflect children’s social worlds
  • listen to and learn about children’s understandings of themselves
  • actively support the maintenance of home language and culture
  • develop authentic children’s understanding of themselves

1.4 Children learn to interact in relation to others with care, empathy and respect

This is evident, for example, when children:

  • show interest in other children and being part of a group
  • engage in and contribute to shared play experiences
  • express a wide range of emotions, thoughts and views constructively
  • empathise with and express concern for others
  • display awareness of and respect for others’ perspectives
  • reflect on their actions and consider consequences for others

Educators promote this learning, for example, when they:

  • initiate one-to-one interactions with children, particularly babies and toddlers, during daily routines
  • organise learning environments in ways that promote small group interactions and play experiences
  • model care, empathy and respect for children, staff and families
  • model explicit communication strategies to support children to initiate interactions and join in play and social experiences in ways that sustain productive relationships with other children
  • acknowledge children’s complex relationships and sensitively intervene in ways that promote consideration of alternative perspectives and social inclusion

Mcgregor Versus Cowboy Outcome 1/18/2020

Published online 2003 Nov 3. doi: 10.1186/1477-7525-1-64
PMID: 14613558
This article has been cited by other articles in PMC.

Abstract

The Knee injury and Osteoarthritis Outcome Score (KOOS) was developed as an extension of the WOMAC Osteoarthritis Index with the purpose of evaluating short-term and long-term symptoms and function in subjects with knee injury and osteoarthritis. The KOOS holds five separately scored subscales: Pain, other Symptoms, Function in daily living (ADL), Function in Sport and Recreation (Sport/Rec), and knee-related Quality of Life (QOL). The KOOS has been validated for several orthopaedic interventions such as anterior cruciate ligament reconstruction, meniscectomy and total knee replacement. In addition the instrument has been used to evaluate physical therapy, nutritional supplementation and glucosamine supplementation. The effect size is generally largest for the subscale QOL followed by the subscale Pain. The KOOS is a valid, reliable and responsive self-administered instrument that can be used for short-term and long-term follow-up of several types of knee injury including osteoarthritis. The measure is relatively new and further use of the instrument will add knowledge and suggest areas that need to be further explored and improved.

The Knee injury and Osteoarthritis Outcome Score (KOOS)

Why assess Health-Related Quality of Life with the Knee Injury and Osteoarthritis Outcome Score (KOOS)?

The main reason for developing a single instrument with the purpose of covering several types of knee injury and including osteoarthritis (OA), was that traumatic knee injuries often causes concomitant damage to multiple structures (ligaments, menisci, cartilage, etc.) and frequently lead to the later development of OA. To be able to follow patients after a trauma and to gain insight into the change of symptoms, function etc. over time, a questionnaire which covers both the short-term and long-term consequences is needed. Prior instruments such as the Lysholm knee scoring scale [] have focused only on the short-term consequences and instruments such as the WOMAC Osteoarthritis Index [] only on the long-term consequences. An instrument intended for follow-up of these patients needs to adequately monitor both the acute injury consequences in the physically active and younger patients, and the chronic outcome in the older.

What is the KOOS?

The KOOS is a knee-specific instrument, developed to assess the patients' opinion about their knee and associated problems. The KOOS evaluates both short-term and long-term consequences of knee injury. It holds 42 items in 5 separately scored subscales; Pain, other Symptoms, Function in daily living (ADL), Function in Sport and Recreation (Sport/Rec), and knee-related Quality of Life (QOL).

How was the KOOS developed?

The KOOS was originally developed in 1995 by Ewa M Roos and colleagues at the Departments of Orthopaedics at Lund University, Sweden and at the University of Vermont, USA. Thus, the American-English and Swedish versions were developed simultaneously.

To ensure content validity for subjects with ACL injury, meniscus injury, and early OA, we reviewed the literature, consulted an expert panel, and conducted a pilot study (Fig. (Fig.1).1). The literature indicated three principal areas of patient-relevant outcomes: symptoms, functional status, and satisfaction. An expert panel comprised of patients referred to physical therapy because of knee injuries, orthopaedic surgeons, and physical therapists from both Sweden and the United States, was asked to identify short- and long-term symptoms and functional disabilities resulting from a meniscus or ACL injury. Seven factors were identified by the panel: pain, early disease-specific symptoms, late disease-specific symptoms (e.g. symptoms of OA), function, quality of life, activity level, and satisfaction.

Development and evaluation of the KOOS.

A pilot study was then conducted to identify the subjectively most relevant factors among patients with post-traumatic osteoarthritis. Seventy-five individuals who had had meniscus surgery 20 years previously were asked to respond to two questionnaires, both self-administered. The participants ranged in age from 35 to 76 (mean 56), and showed radiological signs of knee OA, defined as joint space narrowing and osteophytes. One of the questionnaires, by Flandry et al. [], was constructed to assess symptoms of anterior cruciate ligament (ACL) injury and the other, WOMAC Osteoarthritis Index [], for assessing symptoms of knee OA Questions that most frequently received high responses, and were thus considered to reflect the most predominant symptoms, included those relating to pain, swelling, stiffness, and the ability to run, jump, kneel, and squat.

To be able to calculate WOMAC scores from the KOOS, the questions from the WOMAC Osteoarthritis Index LK 3.0 [] were included in their full and original form in the KOOS questionnaire (with permission, Nicholas Bellamy personal communication 1995). The KOOS dimension of Activities of Daily Living is equivalent to that of Function in the WOMAC Osteoarthritis Index. Questions included in the subscales Sport and Recreational Function and knee-related Quality of Life were adopted, in their original form or with some modification, from other outcome measures used to assess ACL injury [,]. Satisfaction and activity level, two dimensions also considered relevant by the panel of experts, were not included in the KOOS, since it was not possible to agree on wording that would be applicable for all situations.

How was the KOOS validated?

The KOOS has been validated in several different populations having surgical procedures due to knee complaints. To ensure the instrument being valid for both short-term and long-term consequences, validations have been carried out in different populations with varying diseases and durations and at varying ages and activity levels. Firstly, the American-English version was validated in subjects (age range 18–46) undergoing surgical reconstruction of the ACL []. Secondly, the Swedish version was validated in subjects (age range 16–79) undergoing knee arthroscopy []. Thirdly, the KOOS was compared to the WOMAC in subjects meniscectomized 16 years previously (age range 38–76) with and without OA []. Fourthly, a validation study was carried out in subjects (age range 43–86) treated with total knee replacement for OA []. For patients on the waiting-list for total knee replacement for OA, content validity was assessed before surgery by asking the patients to rate the importance of improvement in each of the five KOOS subscales on a 5-point Likert-scale as extremely important, very important, moderately important, somewhat important, or not important at all. For each subscale examples of questions within the subscale were given. Over 90% reported that improvement in the four subscales Pain, Symptoms, Activities of Daily Living, and knee-related Quality of Life was extremely or very important when deciding to have their knee operated on. 51% reported that improvement in functions included in the subscale Sport and Recreation Function such as squatting, kneeling, jumping, turning/twisting and running was extremely or very important when deciding to have their knee operated on. Postoperatively, patients tended to start doing physical functions they did not do prior to the operation.

Convergent and divergent construct validity was determined in comparison to the SF-36 [], and when applicable also to the Lysholm knee scoring scale [].

What translations are available?

The KOOS has been formally validated in American-English [], Swedish [] and German []. Translations are also available in Danish, Russian and Italian. Spanish, French, Icelandic, Polish, Estonian and Greek versions are pending.

What modifications for other joints and diseases are available?

The KOOS has been modified to assess problems associated with the foot and ankle (FAOS) [] and with the hip HOOS []. A modification intended for evaluation of lower extremity problems (hip, knee and foot) in subjects with rheumatoid arthritis and other inflammatory joint diseases (RAOS) has recently been published [].

Symptoms experienced from the hip differs to some extent from symptoms experiences from the knee and foot which is reflected by differences in the symptoms subscale of the HOOS compared to the other modifications. Swelling, range of motion, and mechanical symptoms were not included in the HOOS due to low relevance and responsivenss. With regard to physical activities however there were only minor differences between the HOOS and the other modifications.

Why is the KOOS a good instrument to consider using?

The KOOS is a comprehensive instrument including five subscales assessing aspects of knee injury and knee OA considered important by patients. Most other instruments used for acute knee injury aggregate items measuring different aspects into one score. This procedure flattens the results and makes interpretation more difficult since the included items do not always correlate. The KOOS is self-administered and takes approximately 10 minutes to fill out. It is a feasible instrument as illustrated by few missing items, 0.8% for subjects having knee arthroscopy and 3.2% for subjects having total knee replacement, when administered by mail [,]. Since a subscore can be calculated when two or less items are missing for each subscale, it was only in a few cases a subscore could not be calculated.

Patients sustaining knee joint injury are often young and physically active. An advantage when using the KOOS for studies of the long-term consequences of joint injury in such patients is that the KOOS assesses sport and recreation function and knee-related quality of life and has a greater responsiveness compared to other more generic instruments such as the WOMAC and the SF-36 (Fig (Fig22).

Effect sizes of KOOS, WOMAC and SF-36 six months after ACL-reconstruction. Comparison of effect sizes of KOOS, WOMAC and SF-36 six months after surgical reconstruction of the ruptured anterior cruciate ligament. Effect size was defined as mean score change divided by the pre-operative standard deviation. The data are previously published (n = 21, mean age 32 years) []. Placebo or sham treatment results have not been subtracted to generate effect sizes. It should be noted that the effect size displayed here will be influenced by the preoperative within-group variation of the score dimension measured.

What are the applications of the KOOS?

The KOOS is intended to be used over short and long time intervals; to assess changes from week to week induced by treatment (medication, surgery, physical therapy) or over the years due to a primary knee injury, posttraumatic OA or primary OA.

What areas of health does it measure?

The KOOS collects data on five knee-specific patient-centered outcomes: (1) pain; (2) other symptoms such as swelling, restricted range of motion and mechanical symptoms; (3) disability on the level of daily activities; (4) disability on a level physically more demanding than activities of daily living; (5) mental and social aspects such as awareness and lifestyle changes.

Who answers it?

The KOOS is self-administered and filled out by the patient. In the Swedish validation studies the questionnaires have been sent and returned by mail. In the American validation study the questionnaires were either filled out prior to a doctors visit or by mail. No interview or phone formats are available.

Outcome 1.1 1

How long does it take to complete the KOOS?

The KOOS takes about 10 minutes to fill out.

How is the KOOS administered?

The KOOS is self-explanatory and can be administered in the waiting room or used as a mailed survey.

How is the KOOS scored?

The five patient-relevant subscales of KOOS are scored separately: Pain (nine items); Symptoms (seven items); ADL Function (17 items); Sport and Recreation Function (five items); Quality of Life (four items). A Likert scale is used and all items have five possible answer options scored from 0 (No Problems) to 4 (Extreme Problems) and each of the five scores is calculated as the sum of the items included. Scores are transformed to a 0–100 scale, with zero representing extreme knee problems and 100 representing no knee problems as common in orthopaedic assessment scales and generic measures. Scores between 0 and 100 represent the percentage of total possible score achieved. An aggregate score is not calculated since it is regarded desirable to analyze and interpret the five dimensions separately.

Is there automated administration or scoring software?

Scoring software is available in Microsoft Excel-format and can be downloaded from http://www.koos.nu

How are the KOOS scores interpreted?

The score is a percentage score from 0 to 100, 0 representing extreme problems and 100 representing no problems. This direction, 100 indicating no problems, is common in orthopaedic instruments and generic measures like the SF-36. In measures developed by rheumatologists, like the WOMAC, 100 usually represents worst possible result.

Is the KOOS responsive to change?

Change over time

The effect sizes following surgical procedures vary both with regard to the procedure being undertaken and the specific KOOS subscale. Generally, the subscale QOL is the most responsive, followed by the subscale Pain. The highest effect sizes observed were obtained after total knee replacement (Figure (Figure33).

Effect size for different surgical interventions measured by KOOS. KOOS effect sizes 6 months following surgical knee interventions. Effect size was defined as mean score change divided by the pre-operative standard deviation. The data from total knee replacement [] (n = 105, mean age 71.3 years) and anterior cruciate ligament reconstruction [] (n = 21, mean age 32 years) are previously published. The data from tibial osteotomy concerns 50 patients (mean age 54 years) undergoing hemicallotasis osteotomy (W-Dahl A, Lund University, personal communication 2001). The data from cartilage repair concerns 50 patients (mean age 34 years) undergoing autologus cartilage transplant (Olsson M, University of Gothenburg, personal communication 2002). The data for meniscectomy concern 66 patients (mean age 44 years) undergoing arthroscopic partial meniscectomy (Roos E, Lund University, personal communication 2003). Placebo or sham treatment results have not been subtracted to generate effect sizes. It should be noted that the effect size displayed here will be influenced by the preoperative within-group variation of the score dimension measured. This may vary between the different study groups. All data are published with permission from the authors.

Between-group differences

Outcome 1.16 Sra

Several randomized trials using the KOOS have been published. In a trial comparing two methods of reconstruction of the ACL, significant differences between groups were found in ADL, Sport/Rec and QOL at various postoperative time points []. In a trial of glucosamine supplementation, significant group differences were found in Pain and ADL []. In a trial of a nutritional supplement significant between-group differences were found for ADL []. In all trials, significant improvement was detected in the treatment groups over time. The number of subjects in each treatment arm in these RCT:s ranged from 15 to 27. In a study on continuous passive motion as supplemental treatment following total knee replacement, no significant differences were found between groups [17].

What is the meaningful change for the instrument?

The minimal perceptible clinical improvement (MPCI) represents the difference on the measurement scale associated with the smallest change in the health status detectable by the patient. The MPCI of the KOOS has not been formally assessed. Since the KOOS questionnaire contains the full and original version of the WOMAC index and WOMAC scores can easily be calculated, the MPCI of approximately 10 obtained for the WOMAC [] has been applied to KOOS in power analyses and when determining cut-offs for improvement and deterioration (Paradowski P et al., personal communication 2003). Accordingly, a level of 10 points or more of improvement or decline was suggested as a cut-off representing a clinically significant difference.

In support of this suggestion, we compared KOOS data after ACL reconstruction with the clinical knowledge of rehabilitation phases following ACL reconstruction. Three months postoperatively, the patients experienced some pain, swelling and restriction in range of motion and had not pushed their knee during sporting activities. This was reflected by (statistically non-significant) changes of 1 to 7 KOOS score points in pain, symptoms, and sport and recreation function over this time interval, compared to preoperative scores. Six months postoperatively, the patients were back at more vigorous activities including sport and had few symptoms, reflected by (statistically significant) changes of 8–23 score points in all subscale scores. Thus, it seems that a change in score of 8 points or more may represent a clinically significant change following ACL reconstruction. We thus suggest that 8–10 points may represent the minimal perceptible clinical improvement (MPCI) of the KOOS. However, to further explore this difficult question, additional studies including different treatments and patient groups should be undertaken.

Has the KOOS been used in individual patients?

The test-retest reliability has been sufficient for most subscales in most studies to allow assessment of change over time in individual patients. The KOOS is frequently used in the clinic to help patients and therapists follow the progress after interventions due to knee problems.

In which populations has the KOOS been used?

The KOOS is intended to be used in knee injury that can result in post traumatic OA or in primary OA. The KOOS has been used in men and women ranging from 14–79 years in age with varying disorders resulting in knee complaints such as anterior cruciate ligament tear, meniscus tear, and mild, moderate and severe OA. The KOOS has been used to follow the immediate post-operative period and in 10 to 20 year follow-ups of knee injury. The KOOS was published in 1998, and in prospective studies of knee injury no longer follow-ups than 2 years have been published to date. The KOOS has also been used in healthy female soccer players [19]. By others, the KOOS has been used to assess the effects of anterior cruciate ligament reconstruction [], glucosamine supplementation [], and nutritional supplementation [].

Do we need permission to use it?

Permission is not required to use the KOOS.

Who may I contact to obtain a copy of the KOOS?

The KOOS questionnaire including modifications for the foot and ankle (FAOS), hip (HOOS) and rheumatoid and other types of arthritis (RAOS) can be downloaded from http://www.koos.nu

Learning

How can we obtain more information about the KOOS?

Please go to http://www.koos.nu

How much does it cost to purchase the KOOS itself?

The KOOS is free of charge.

How can we obtain a scientific support during our study?

Information is available at http://www.koos.nu

Discussion

The KOOS was first published in 1998, and is thus a relatively new instrument. Its use in several different patient groups is supported by the currently available literature. However, further use of the instrument will add knowledge and suggest areas that need to be further explored and improved.

KOOS vs. WOMAC

The KOOS was developed as an extension of the WOMAC Osteoarthritis Index with the overall purpose to evaluate short- and long-term symptoms and function after knee injury and OA. The reason for developing one instrument covering several types of knee injury and OA was that these structural damages often coincide within patients. All the questions of the WOMAC LK 3.0 were retained so that a WOMAC score might be calculated separately and compared with the KOOS score. This would also facilitate comparison of outcomes with previous studies using WOMAC on other patient populations.

Knee injury most often includes damage to the ligaments, the menisci, or the cartilage. These injuries can be isolated but are frequently combined, and often result in the later development of OA. About 10–15 years after an injury to the menisci or anterior cruciate ligament, approximately every other patient has developed radiographic OA [-]. To increase sensitivity for patients with knee injury, items were added to the WOMAC pain and stiffness sections and two new subscales were added, resulting in a 42 item questionnaire with five subscales; Pain (9 items), Other symptoms (7 items), ADL Function (17 items), Sport and Recreation Function (5 items), and knee-related Quality of Life (4 items).

As expected, larger effect sizes of the KOOS compared to the WOMAC was found in younger subjects (age 18–46) with knee injury []. Increased sensitivity of the KOOS compared with the WOMAC was also shown in previously meniscectomized subjects with and without radiographic knee OA aged 38–76 []. However, a more unexpected finding was that larger effect sizes were found for the KOOS compared to the WOMAC in elderly subjects (age 43–86) treated with a total knee replacement because of severe knee OA []. Increased sensitivity may yield larger score changes over time, resulting in larger effect sizes. This in turn may allow smaller patient study groups when comparing treatments.

Conclusions

KOOS was developed as an extension of the WOMAC Osteoarthritis Index with the purpose of evaluating short- and long-term symptoms and function in young and physically active subjects with knee injury and OA. The questions of the WOMAC LK 3.0 were retained so that a WOMAC score might be calculated separately and compared with the KOOS score. As expected, larger effect sizes for KOOS as compared with WOMAC were shown for young subjects with knee injury. The use of KOOS with different patient groups is supported by the available literature. However, further use of the instrument will suggest areas that need to be further improved.

Authors' contributions

ER drafted the manuscript. SL contributed significantly to the manuscript. Both authors read and approved the final manuscript.

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