Abstract: An injection apparatus (1) for making an injection at a predetermined depth in skin comprises: a first skin positioning member (4, 26); a second skin positioning member (3, 54), wherein the first and second skin positioning members lie or are moveable to lie in an injection arrangement; an injection needle (50); and means guiding the injection needle for movement from a parking position above the skin, through the lower surface of the second skin positioning member to slide beneath the first skin positioning member to an injection position. A further injection apparatus comprises: an injection needle; a plunger (44) within the injection needle; and means for retracting the injection needle such that material to be injected is expelled from the injection needle by the plunger.

Abstract: A first light source emits a light signal along a measurement optical path that includes a sample and a second light source emits a light signal along a dummy measurement optical path. A measurement circuit receives the light signals and provides outputs separated in time which are indicative of the phase of the respective light signals. A phase shift is induced in light in the measurement optical path by the sample. A reference circuit receives a signal indicative of the phase of the light signals emitted by the first and second light sources. Circuitry compares the phases of light output from the two circuits to provide output indicative of a first measured phase difference during operation of the first light source. Correction is applied to this measurement by taking a similar phase difference measurement during operation of the second light source and comparing the two phase differences.

Abstract: In apparatus for the production and detection of fluorescence at a sample surface, the height of the apparatus above the sample surface is reduced, and loss of the emitted fluorescence due to reflection loss and light scattering is minimized. The apparatus comprises a three-dimensionally curved light reflecting surface (40) that directs light from a light source (32) transversely to its original path and focuses the light on to an illumination zone (30) at or below the sample surface. The reflecting surface (40) also collects, directs and at least partially collimates emitted fluorescence transversely to its original path and towards a detector (46).

Abstract: Solid pharmaceutical compositions and methods of making and administering for parenteral injection comprising a binder and at least one therapeutic agent. The pharmaceutical composition has the strength to be injected directly with the need of using cannulas or the like.

Abstract: In apparatus for the production and detection of fluorescence at a sample surface, the height of the apparatus above the sample surface is reduced, and loss of the emitted fluorescence due to reflection loss and light scattering is minimized. The apparatus comprises a three-dimensionally curved light reflecting surface (40) that directs light from a light source (32) transversely to its original path and focuses the light on to an illumination zone (30) at or below the sample surface. The reflecting surface (40) also collects, directs and at least partially collimates emitted fluorescence transversely to its original path and towards a detector (46).

Abstract: Solid pharmaceutical compositions for parenteral injection comprising a binder and at least one therapeutic agent. The pharmaceutical composition has the strength to be injected directly with the need of using cannulas or the like.

Abstract: A first light source emits a light signal along a measurement optical path that includes a sample and a second light source emits a light signal along a dummy measurement optical path. A measurement circuit receives the light signals and provides outputs separated in time which are indicative of the phase of the respective light signals. A phase shift is induced in light in the measurement optical path by the sample. A reference circuit receives a signal indicative of the phase of the light signals emitted by the first and second light sources. Circuitry compares the phases of light output from the two circuits to provide output indicative of a first measured phase difference during operation of the first light source. Correction is applied to this measurement by taking a similar phase difference measurement during operation of the second light source and comparing the two phase differences.

Abstract: In apparatus for the production and detection of fluorescence at a sample surface, the height of the apparatus above the sample surface is reduced, and loss of the emitted fluorescence due to reflection loss and light scattering is minimized. The apparatus comprises a three-dimensionally curved light reflecting surface (40) that directs light from a light source (32) transversely to its original path and focuses the light on to an illumination zone (30) at or below the sample surface. The reflecting surface (40) also collects, directs and at least partially collimates emitted fluorescence transversely to its original path and towards a detector (46).

Abstract: A first light source emits a light signal along a measurement optical path that includes a sample and a second light source emits a light signal along a dummy measurement optical path. A measurement circuit receives the light signals and provides outputs separated in time which are indicative of the phase of the respective light signals. A phase shift is induced in light in the measurement optical path by the sample. A reference circuit receives a signal indicative of the phase of the light signals emitted by the first and second light sources. Circuitry compares the phases of light output from the two circuits to provide output indicative of a first measured phase difference during operation of the first light source. Correction is applied to this measurement by taking a similar phase difference measurement during operation of the second light source and comparing the two phase differences.

Abstract: Apparatus for measuring a phase shift induced in a light signal has a first light source for emitting a light signal along a measurement optical path that includes a sample, for example a fluorescent sample, and a second light source for emitting a light signal along a dummy measurement optical path. A measurement electronic circuit is provided for receiving the light signals and providing outputs separated in time which are indicative of the phase of the respective light signals. In use, a phase shift is induced in light in the measurement optical path by the fluorescent sample. A reference electronic circuit is provided for receiving a signal indicative of the phase of the light signals emitted by the first and second light sources. Circuitry is provided to compare the respective phases of light output from the two circuits to provide an output indicative of a first measured phase difference during operation of the first light source.

Abstract: This invention relates to an system for self treatment. The system consists of several portable modules where one of the modules is designated as a master module. The master module controls, supervises and monitors all the mutual information and data exchange between itself and the rest of the modules. The modules can e.g. consist of a BGM, a doser and a storage container. The modules may be able to generate and store data which is transmitted to the master module if it is within range. If the master module is not within range, the data is kept locally in the module until the master module is available. The master module can send the data to an external unit like a computer or database for further processing. A physician or an expert care-team can access the data in the database and give guidance to the patient on the basis of these processed data. This processing could also be done automatically by utilization of an expert system.

Abstract: A method of self treating a disease, such as diabetes, includes collecting in one or more databases data representing values of parameters that related to the self treatment. The data is processed to provide a plurality of alternate choices between two or more actions that may be taken and a corresponding value for each action is calculated. A computerized system may be employed to perform the above method and the system may include a computer readable medium for executing the method.

Abstract: In apparatus for the production and detection of fluorescence at a sample surface, the height of the apparatus above the sample surface is reduced, and loss of the emitted fluorescence due to reflection loss and light scattering is minimized. The apparatus comprises a three-dimensionally curved light reflecting surface (40) that directs light from a light source (32) transversely to its original path and focuses the light on to an illumination zone (30) at or below the sample surface. The reflecting surface (40) also collects, directs and at least partially collimates emitted fluorescence transversely to its original path and towards a detector (46).

Abstract: Solid pharmaceutical compositions for parenteral injection comprising a binder and at least one therapeutic agent. The pharmaceutical composition has the strength to be injected directly with the need of using cannulas or the like.

Abstract: This invention relates to a method of assisting a user in a medical self treatment, said self treatment comprising a plurality of actions, said method comprising the steps of collecting in a one or more databases data representing values of parameters relevant for said self treatment, and the step of processing said one or more databases to provide for alternative choices between two or more action and a corresponding value for each two or more actions.

Abstract: This invention relates to an system for self treatment. The system consists of several portable modules where one of the modules is designated as a master module. The master module controls, supervises and monitors all the mutual information and data exchange between itself and the rest of the modules. The modules can e.g. consist of a BGM, a doser and a storage container. The modules may be able to generate and store data which is transmitted to the master module if it is within range. If the master module is not within range, the data is kept locally in the module until the master module is available. The master module can send the data to an external unit like a computer or database for further processing. A physician or an expert care-team can access the data in the database and give guidance to the patient on the basis of these processed data. This processing could also be done automatically by utilization of an expert system.

Abstract: The present invention relates to a method and a system for producing an elongated drug formulation being suitable for being injected through the skin of a patient with-out the use of a needle or a cannula. The drug formulation is produced by compressing a drug granulate in cavity of a system comprising a roller and a surface, wherein the roller roles over the surface thereby comprising the granulate to the formulation.

Abstract: A method of self treating a disease, such as diabetes, includes collecting in one or more databases data representing values of parameters that related to the self treatment. The data is processed to provide a plurality of alternate choices between two or more actions that may be taken and a corresponding value for each action is calculated. A computerized system may be employed to perform the above method and the system may include a computer readable medium for executing the method.

Abstract: A drug delivery device comprising a housing (1) with a drug container (2) being provided with delivering means comprising a piston (5) for expelling a drug (4) from the drug container (2). The housing (1) further comprising a displaceable piston rod (6) abutting the piston (5) of the drug container (2) and rotating means being in engagement with the piston rod (6), said rotating means being provided with a one-way mechanism. The one-way mechanism comprises a helical spring (12) wound tightly around an axle (11), one end of said helical spring (12) being fixed in relation to the housing (1), the other end of the helical spring (12) being in a free state.

Abstract: Described is an electronic injection device wherein an electronic circuit is designed to work in two alternative modes: an air shot mode and a dose injection mode. When working in the air shot mode a small predetermined air shot dose is pressed out from the ampule when the injection button is actuated. When working in the injection mode, a dose set by operation of the dose setting means is injected by operation of the injection button. The electronic injection device is normally working in the air shot mode but shifts to work in the dose injection mode when it receives a signal indicating that the dose setting means has been operated. The circuit returns to its air shot mode when receiving a signal indicating that the set dose has been injected. This signal can originate either from a switch indicating that the protection cap is mounted or from a switch indicating that the injection button has been pressed.