mhurhangee/ep-ind-claims huggingface dataset:
A system, the system comprising: a. a diffraction grating comprising a compartment having lateral dimensions such that a cell can fit therein, optionally wherein said cell is a microorganism; b. a housing and a fluid inlet for bringing a sample comprising the cell and outlet for extracting the sample comprising the cell and wherein said diffraction grating is deposed in the housing; c. a monochromatic light source configured to produce a coherent and collimated light beam directed toward said diffraction grating; d. an optical detection system comprising a sensory array configured to detect zero and non-zero diffraction orders of said light beam from said diffraction grating; and e. a signal processing unit adapted to: acquire from optical detection system zero and non-zero diffraction orders from the grating elements; calculate differences in intensity of a pair of odd and even orders in the diffraction; analyze the differences in the intensity to determine time-dependent changes in effective optical depth of said grating; and determine therefrom a measure for growth of a cell in said grating. a. a diffraction grating comprising a compartment having lateral dimensions such that a cell can fit therein, optionally wherein said cell is a microorganism; b. a housing and a fluid inlet for bringing a sample comprising the cell and outlet for extracting the sample comprising the cell and wherein said diffraction grating is deposed in the housing; c. a monochromatic light source configured to produce a coherent and collimated light beam directed toward said diffraction grating; d. an optical detection system comprising a sensory array configured to detect zero and non-zero diffraction orders of said light beam from said diffraction grating; and e. a signal processing unit adapted to: acquire from optical detection system zero and non-zero diffraction orders from the grating elements; calculate differences in intensity of a pair of odd and even orders in the diffraction; analyze the differences in the intensity to determine time-dependent changes in effective optical depth of said grating; and determine therefrom a measure for growth of a cell in said grating. acquire from optical detection system zero and non-zero diffraction orders from the grating elements; calculate differences in intensity of a pair of odd and even orders in the diffraction; analyze the differences in the intensity to determine time-dependent changes in effective optical depth of said grating; and determine therefrom a measure for growth of a cell in said grating.
A fastening system comprising - a filter hose with a first outer diameter for filtering dust particles; - a filter basket for internally stabilising and fastening the filter hose; and - an attachment region arranged on a perforated filter plate for attaching the filter hose and/or the filter basket to a filter installation; - wherein the attachment region comprises a cutout for the filter hose; - wherein the filter hose has, at one end, at least one snap-ring for the attachment to the attachment region; - wherein the filter hose, for the attachment to the attachment region, also has two insert strips (26, 28) spaced apart from one another, which cover the at least one snap-ring at least over part of the area at a side edge; - wherein the filter hose has, in the region of the insert strips (26, 28), a second outer diameter which is slightly larger than the first outer diameter of the filter hose; - wherein the filter basket is made of a basket-like formed body, which has, at its upper end, at least two spring elements for the attachment to the attachment region; - wherein the snap-ring is elastically deformable and can be brought into at least one first shape, the cross-sectional area of which is smaller than an area of the inner cross-section of the cutout of the perforated filter plate; - wherein at least one further snap-ring is fitted beneath the insert strips (26, 28) on the filter hose for the stabilisation of the filter hose in the region of the spring elements. - a filter hose with a first outer diameter for filtering dust particles; - a filter basket for internally stabilising and fastening the filter hose; and - an attachment region arranged on a perforated filter plate for attaching the filter hose and/or the filter basket to a filter installation; - wherein the attachment region comprises a cutout for the filter hose; - wherein the filter hose has, at one end, at least one snap-ring for the attachment to the attachment region; - wherein the filter hose, for the attachment to the attachment region, also has two insert strips (26, 28) spaced apart from one another, which cover the at least one snap-ring at least over part of the area at a side edge; - wherein the filter hose has, in the region of the insert strips (26, 28), a second outer diameter which is slightly larger than the first outer diameter of the filter hose; - wherein the filter basket is made of a basket-like formed body, which has, at its upper end, at least two spring elements for the attachment to the attachment region; - wherein the snap-ring is elastically deformable and can be brought into at least one first shape, the cross-sectional area of which is smaller than an area of the inner cross-section of the cutout of the perforated filter plate; - wherein at least one further snap-ring is fitted beneath the insert strips (26, 28) on the filter hose for the stabilisation of the filter hose in the region of the spring elements.
Rotary clothes dryer having support arms which are hingedly arranged on a slide sleeve which can be relocated along a mast and can be moved selectively into a resting position and into an expanded position, wherein a first latching means into which the slide sleeve latches in the expanded position is assigned to the mast, wherein a second latching means for latching is assigned to the slide sleeve, wherein the second latching means has at least one pawl for expanding the support arms, wherein the pawl automatically latches into the first latching means in such a manner that an automatic movement of the slide sleeve from the expanded position into the resting position is prevented, wherein a ratchet lever is assigned to the slide sleeve, which is arranged on the slide sleeve so as to be tiltable between a resting position and an operating position, wherein the ratchet lever has a grip section and a projection, projection latches into the first latching means when the ratchet lever moves into the operating position and the slide sleeve moves towards the expanded position by the leverage of the ratchet lever., characterized in that the ratchet lever together with the grip section and the projection is formed as one piece.
A pharmaceutical composition for use in treatment of an immune-mediated disorder in a subject, comprising a partially phosphorothioated oligonucleotide with TLR7, 8 and 9 inhibiting activities, wherein the partially phosphorothioated oligonucleotide is selected from the group consisting of: 5'-CCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 21), 5'-CCTCCTCCtCCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 22), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 23), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 24), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 27), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 28), 5'-CTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 29), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 30), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 31), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 32), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 33), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 34), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 35), 5'-TCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 36), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 37), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 38), 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 39), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 40), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 41), and 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 42) wherein in SEQ ID NOs: 21 to 42 above a capital case letter denotes a nucleotide that is phosphorothioate-modified in the phosphodiester internucleotide linkage at 3', and lower case letter denotes a nucleotide that is un-modified. 5'-CCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 21), 5'-CCTCCTCCtCCTCCTCCtCCTCCTCCt-3' (SEQ ID NO.: 22), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 23), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 24), 5'-CCTCCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCt-3' (SEQ ID NO.: 27), 5'-CCtCCTCCTCCtCCTCCTCCtCCTCCTCCtCCTCCt-3' (SEQ ID NO.: 28), 5'-CTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 29), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 30), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 31), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 32), 5'-CTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTc-3' (SEQ ID NO.: 33), 5'-CTCCTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTc-3' (SEQ ID NO.: 34), 5'-CTcCTCCTCCTcCTCCTCCTcCTCCTCCTcCTCCTc-3' (SEQ ID NO.: 35), 5'-TCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 36), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 37), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 38), 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 39), 5'-TCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCc-3' (SEQ ID NO.: 40), 5'-TCCTCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCc-3' (SEQ ID NO.: 41), and 5'-TCcTCCTCCTCcTCCTCCTCcTCCTCCTCcTCCTCc-3' (SEQ ID NO.: 42) wherein in SEQ ID NOs: 21 to 42 above a capital case letter denotes a nucleotide that is phosphorothioate-modified in the phosphodiester internucleotide linkage at 3', and lower case letter denotes a nucleotide that is un-modified.
Warning lamp for an aircraft, comprising - a housing which has a light permeable cover that is exposed to the surrounding air, when the housing is mounted on the aircraft, said cover having - a frontal cover area and a rear cover area, - wherein the frontal cover area is formed by a frontal cover element which is made from a light permeable first material, - a lamp with at least one LED (42,46,58,60), which is arranged within an area delimited by the cover, and - a cooling body for the LED (42,46,58,60), wherein the cooling body possesses a cooling surface that is exposed to the surrounding air when the housing is mounted on the aircraft, characterized in that - the rear cover area is formed by a rear cover element which is made from a light permeable second material, - the cover is fastened on the aircraft and/or on a lower part of the housing by means of a mounting element, wherein an edge of the cover is covered by an edge of the mounting element and protrudes from it, and - the cooling body, while separating the frontal cover element from the rear cover element, is arranged therebetween, wherein its cooling surface is a part of the external contours of the cover of the housing that is given by the frontal and rear cover elements (22, 28) and possesses an upper region as well as adjacent, opposing side areas. - a housing which has a light permeable cover that is exposed to the surrounding air, when the housing is mounted on the aircraft, said cover having - a frontal cover area and a rear cover area, - wherein the frontal cover area is formed by a frontal cover element which is made from a light permeable first material, - a lamp with at least one LED (42,46,58,60), which is arranged within an area delimited by the cover, and - a cooling body for the LED (42,46,58,60), wherein the cooling body possesses a cooling surface that is exposed to the surrounding air when the housing is mounted on the aircraft, - a frontal cover area and a rear cover area, - wherein the frontal cover area is formed by a frontal cover element which is made from a light permeable first material, - a lamp with at least one LED (42,46,58,60), which is arranged within an area delimited by the cover, and - a cooling body for the LED (42,46,58,60), wherein the cooling body possesses a cooling surface that is exposed to the surrounding air when the housing is mounted on the aircraft, - the rear cover area is formed by a rear cover element which is made from a light permeable second material, - the cover is fastened on the aircraft and/or on a lower part of the housing by means of a mounting element, wherein an edge of the cover is covered by an edge of the mounting element and protrudes from it, and - the cooling body, while separating the frontal cover element from the rear cover element, is arranged therebetween, wherein its cooling surface is a part of the external contours of the cover of the housing that is given by the frontal and rear cover elements (22, 28) and possesses an upper region as well as adjacent, opposing side areas.
Bracelet comprising an upper strip and a lower strip forming at least one strand of the bracelet, the bracelet comprising a flexible intermediate layer disposed between the upper strip and the lower strip, characterised in that the flexible intermediate layer is formed by two encapsulated phase-change materials, a first encapsulated phase-change material having a transition temperature between 15°C and 20°C, and a second encapsulated phase-change material having a transition temperature between 25°C and 35°C.
A biometric recognition attack test method, wherein the method comprises: obtaining, based on information about a target user to be tested, a test object needed for performing a biometric recognition attack on the target user, wherein the test object comprises a test image and/or a physical model of a body part corresponding to the biometric recognition attack; controlling a mechanical arm to place the test image or the physical model of the body part in the test object in a recognition area of a biometric recognition device, and controlling the mechanical arm to adjust the test object in a plurality of different positions and poses to perform a biometric recognition attack test, to obtain a test result for the test object in each position and pose; and determining, based on the test result corresponding to the test object in each position and pose, a test result of the biometric recognition attack performed on the target user. obtaining, based on information about a target user to be tested, a test object needed for performing a biometric recognition attack on the target user, wherein the test object comprises a test image and/or a physical model of a body part corresponding to the biometric recognition attack; controlling a mechanical arm to place the test image or the physical model of the body part in the test object in a recognition area of a biometric recognition device, and controlling the mechanical arm to adjust the test object in a plurality of different positions and poses to perform a biometric recognition attack test, to obtain a test result for the test object in each position and pose; and determining, based on the test result corresponding to the test object in each position and pose, a test result of the biometric recognition attack performed on the target user.
Valve unit for modulating the pressure in a pneumatic brake system, comprising an inlet valve (6.1; 6.2) and an outlet valve (7.1; 7.2), which are designed as diaphragm valves and via which a brake pressure outlet can be connected to a brake pressure inlet or a vent outlet or can be shut off relative thereto, and comprising two pilot valves (8, 9), which are designed as 3/2-way solenoid valves and via each of which a control chamber (27.1, 28.1; 27.2, 28.2) adjoining the diaphragm (17.1, 18.1; 17.2, 18.2) of the associated diaphragm valve (6.1, 7.1; 6.2, 7.2) can be supplied with a control pressure via a control pressure line (29, 30), wherein the diaphragm valves (6.1, 7.1; 6.2, 7.2) are arranged with parallel actuation axes (15, 16) radially adjacently in a valve housing, and the diaphragms (17.1, 18.1; 17.2, 18.2) of the diaphragm valves (6.1, 7.1; 6.2, 7.2) are clamped between two housing parts (11, 12), wherein the inlet valve (6.1; 6.2) and/or the outlet valve (7.1; 7.2) is designed in each case as a springless diaphragm valve, and in that the associated control pressure line (29, 30) opens in each case centrally and in an axially oriented manner into the control chamber (27.1, 28.1; 27.2, 28.2) of the relevant diaphragm valve (6.1, 7.1; 6.2, 7.2), characterized in that the control pressure line (29, 30) ends in a tubular nozzle (33, 34; 41, 42) projecting axially into the control chamber (27.1, 28.1; 27.2, 28.2) of the diaphragm valve (6.1, 7.1; 6.2, 7.2) in order to form a nozzle/baffle plate unit.
A method, comprising: - providing a device with a controller that effects temperature control or temperature monitoring; - receiving, via the controller, a minimum temperature value and a maximum temperature value of a temperature range to be measured; - correlating, via the controller, a known output signal range of a first temperature sensor (204, 402, 602) of a first temperature sensor type or a second temperature sensor (204, 402, 602) of a second temperature sensor type different from the first type to the temperature range to be measured, wherein a first output signal range of the first temperature sensor (204, 402, 602) is different from a second output signal range of the second temperature sensor type such that the two output signal ranges do not overlap; - receiving, via the controller, an output signal from the first temperature sensor (204, 402, 602) or the second temperature sensor (204, 402, 602); and - generating, via the controller, a measured temperature value based on the output signal of the first temperature sensor (204, 402, 602) or the second temperature sensor (204, 402, 602). - providing a device with a controller that effects temperature control or temperature monitoring; - receiving, via the controller, a minimum temperature value and a maximum temperature value of a temperature range to be measured; - correlating, via the controller, a known output signal range of a first temperature sensor (204, 402, 602) of a first temperature sensor type or a second temperature sensor (204, 402, 602) of a second temperature sensor type different from the first type to the temperature range to be measured, wherein a first output signal range of the first temperature sensor (204, 402, 602) is different from a second output signal range of the second temperature sensor type such that the two output signal ranges do not overlap; - receiving, via the controller, an output signal from the first temperature sensor (204, 402, 602) or the second temperature sensor (204, 402, 602); and - generating, via the controller, a measured temperature value based on the output signal of the first temperature sensor (204, 402, 602) or the second temperature sensor (204, 402, 602).
A capillary internally coated with at least one sample flag compound for use in at least one diagnostic assay, comprising: at least one capillary, the capillary having at least one outer surface, at least one inner surface, a first end, a second end, and opening located at the second end of the capillary, wherein at least a portion of the inner surface of the capillary is coated with at least one sample flag compound, the at least one sample flag compound detecting the presence or non-presence of a patient's liquid test sample within the capillary, wherein the at least one sample flag compound is selected from the group consisting of metabisulfite, taurine, and combinations thereof and is capable of emitting a detectable signal when interrogated by specific wavelength(s) of visible light in the presence of a patient's liquid test sample.
A mobile human interface robot comprising: a base defining a vertical center axis and a forward drive direction; a holonomic drive system supported by the base; a controller in communication with the drive system; a torso supported above the base; and a touch sensor system in communication with the controller, the touch sensor system responsive to human contact; wherein the controller issues drive commands to the drive system based on a touch signal received from the touch sensor system; and being characterised in that the controller is adapted to issue drive commands that comprise a command to increase a movement resistance of at least a portion of the robot in a direction opposite to a received touch. a base defining a vertical center axis and a forward drive direction; a holonomic drive system supported by the base; a controller in communication with the drive system; a torso supported above the base; and a touch sensor system in communication with the controller, the touch sensor system responsive to human contact; wherein the controller issues drive commands to the drive system based on a touch signal received from the touch sensor system; and being characterised in that the controller is adapted to issue drive commands that comprise a command to increase a movement resistance of at least a portion of the robot in a direction opposite to a received touch.
An ambulance stretcher, which comprises: ∘ A support frame for supporting a patient; ∘ a pair of front legs, each having a front wheel; ∘ a pair of rear legs, each having a rear wheel; ∘ a front coupling body connected to a front end of the support frame and configured to be removably coupled to a support coupling in an ambulance; characterized in that the coupling body comprises a spherical or hemispherical coupling head arranged on a vertical longitudinal median plane of the support frame. ∘ A support frame for supporting a patient; ∘ a pair of front legs, each having a front wheel; ∘ a pair of rear legs, each having a rear wheel; ∘ a front coupling body connected to a front end of the support frame and configured to be removably coupled to a support coupling in an ambulance;
An elevator system comprising a control panel including a converter for rectifying AC power and outputting the DC power to a DC bus, and an inverter connected to said DC bus and converting said DC power to variable voltage variable frequency AC power, and operating an elevator car by driving an electric motor by an output of said inverter, characterized in that the elevator system includes a power storage device comprising: a power storage part storing power from said DC bus and discharging power to said DC bus; a charging/discharging circuit part connected between said DC bus and said power storage part; a measuring part for measuring at least one kind selected from a temperature of said power storage part or an input/output current or voltage thereof; and a charging/discharging control part for controlling the charging/discharging of said power storage part by controlling said charging/discharging circuit part according to an output of said measuring part, and an air blowing part for blowing air to said power storage part, wherein said control panel is provided within an elevator shaft and said power storage device or at least the power storage part among the power storage part, charging/discharging circuit part, measuring part, charging/discharging control part and air blowing part of said power storage device is provided integrally with said control panel. a power storage part storing power from said DC bus and discharging power to said DC bus; a charging/discharging circuit part connected between said DC bus and said power storage part; a measuring part for measuring at least one kind selected from a temperature of said power storage part or an input/output current or voltage thereof; and a charging/discharging control part for controlling the charging/discharging of said power storage part by controlling said charging/discharging circuit part according to an output of said measuring part, and an air blowing part for blowing air to said power storage part, wherein said control panel is provided within an elevator shaft and said power storage device or at least the power storage part among the power storage part, charging/discharging circuit part, measuring part, charging/discharging control part and air blowing part of said power storage device is provided integrally with said control panel.