mhurhangee/ep-ind-claims huggingface dataset:
A filter having a testing port, comprising: a pleated v-shaped filter media having a front face and a rear face, the pleats extending to a predefined height; a test port member having a front face positioned adjacent the front face of the filter media, a rear face positioned adjacent the rear face of the filter media, and a through port extending between the front face and the opposing rear face of the test port member, and an inwardly facing side extending between the front face and the opposing rear face; a peripheral frame receiving the filter media and the test port member and maintains them in adjacent relationships; wherein the test port member is retained by the peripheral frame and is positioned between the peripheral frame and a truncated portion of the outer periphery of the pleated v-shaped filter media, the truncated portion being created by removing a portion of the filter media, wherein the inwardly facing side of the test port member engages an outer periphery of the filter media, and wherein the test port member defines one or more cavities (20a, 20b) with the peripheral frame, the one or more cavities (20a, 20b) being intersected by the through port; both the pleated v-shaped filter media having the truncated portion and the test port member adjacent the truncated portion is retained within the peripheral frame and forming a rectangular filter. a pleated v-shaped filter media having a front face and a rear face, the pleats extending to a predefined height; a test port member having a front face positioned adjacent the front face of the filter media, a rear face positioned adjacent the rear face of the filter media, and a through port extending between the front face and the opposing rear face of the test port member, and an inwardly facing side extending between the front face and the opposing rear face; a peripheral frame receiving the filter media and the test port member and maintains them in adjacent relationships; wherein the test port member is retained by the peripheral frame and is positioned between the peripheral frame and a truncated portion of the outer periphery of the pleated v-shaped filter media, the truncated portion being created by removing a portion of the filter media, wherein the inwardly facing side of the test port member engages an outer periphery of the filter media, and wherein the test port member defines one or more cavities (20a, 20b) with the peripheral frame, the one or more cavities (20a, 20b) being intersected by the through port; both the pleated v-shaped filter media having the truncated portion and the test port member adjacent the truncated portion is retained within the peripheral frame and forming a rectangular filter.
An injectate delivery system, comprising: a reservoir for holding a fluid injectate; a conduit in fluid communication with the reservoir and configured at one end to be connected to a catheter, the conduit comprising a tubing configured to receive discharged injectate from the reservoir; an injector configured to discharge the fluid injectate from the reservoir to the conduit; a flow measurement device interposed in the conduit between the reservoir and the catheter and in line with the tubing, wherein the flow measurement device is configured for generating a signal; and a processing device adapted to receive the signal from the flow measurement device and configured to calculate a flow rate of the fluid injectate from the reservoir to the catheter based on the signal, and calculate an injectate volume based on the calculated flow rate, the calculated injectate volume is prepared to be used as input for calculating at least one transpulmonary thermodilution parameter, wherein the reservoir is a reservoir of a syringe that includes a manually operable plunger as the injector, characterized in that a sensor (78, 80, 82) interposed in the conduit is configured to detect changes in pressure or temperature of the injectate and to signal a timer to start at the beginning of the injection and stop at the end of the injection to measure elapsed time of an injection. a reservoir for holding a fluid injectate; a conduit in fluid communication with the reservoir and configured at one end to be connected to a catheter, the conduit comprising a tubing configured to receive discharged injectate from the reservoir; an injector configured to discharge the fluid injectate from the reservoir to the conduit; a flow measurement device interposed in the conduit between the reservoir and the catheter and in line with the tubing, wherein the flow measurement device is configured for generating a signal; and a processing device adapted to receive the signal from the flow measurement device and configured to calculate a flow rate of the fluid injectate from the reservoir to the catheter based on the signal, and calculate an injectate volume based on the calculated flow rate, the calculated injectate volume is prepared to be used as input for calculating at least one transpulmonary thermodilution parameter, wherein the reservoir is a reservoir of a syringe that includes a manually operable plunger as the injector, characterized in that a sensor (78, 80, 82) interposed in the conduit is configured to detect changes in pressure or temperature of the injectate and to signal a timer to start at the beginning of the injection and stop at the end of the injection to measure elapsed time of an injection.
A turbo refrigerator comprising: a turbo compressor (2; 33) configured to compress a gas-phase refrigerant (R1; R21; R22; R2); a condenser configured to condense the gas-phase refrigerant compressed by the turbo compressor; and an evaporator configured to evaporate a liquid-phase refrigerant obtained by the condenser to cool down a cooling target by evaporation heat of the liquid-phase refrigerant, wherein: the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; characterised in that the compressor rear stage entirely overlaps the condenser when viewed from the axial direction. a turbo compressor (2; 33) configured to compress a gas-phase refrigerant (R1; R21; R22; R2); a condenser configured to condense the gas-phase refrigerant compressed by the turbo compressor; and an evaporator configured to evaporate a liquid-phase refrigerant obtained by the condenser to cool down a cooling target by evaporation heat of the liquid-phase refrigerant, wherein: the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; characterised in that the compressor rear stage entirely overlaps the condenser when viewed from the axial direction.
A control unit attachable to an endoscope, the endoscope having two external rotatable knobs and a shaft deflectable via the two external rotatable knobs (22, 22'), the control unit being attachable to an external surface of the endoscope and comprising: (a) a user interface including a first interface being mounted on a pivotal support attached to a housing of the control unit, said first interface being engageable by a palm of a hand; and (b) a drive unit (62, 72) operable via said user interface, said drive unit including a first drive mechanism for engaging the two rotatable knobs (22, 22') thereby allowing a user to control deflection of the shaft of the endoscope via said first interface, characterized in that the control unit is retrofittable onto the endoscope with the two external rotatable knobs so as to engage the two rotatable knobs to thereby control deflection of the endoscope shaft via the two rotatable knobs. (a) a user interface including a first interface being mounted on a pivotal support attached to a housing of the control unit, said first interface being engageable by a palm of a hand; and (b) a drive unit (62, 72) operable via said user interface, said drive unit including a first drive mechanism for engaging the two rotatable knobs (22, 22') thereby allowing a user to control deflection of the shaft of the endoscope via said first interface, characterized in that the control unit is retrofittable onto the endoscope with the two external rotatable knobs so as to engage the two rotatable knobs to thereby control deflection of the endoscope shaft via the two rotatable knobs.
A method of preparing alloreactive cytotoxic T cells comprising: providing patient cell antigen information, wherein the patient cell antigen information comprises patient cell antigen information determined through a high or intermediate resolution molecular sequencing method of major histocompatibility complex information; providing responder information, wherein the responder information comprises donor cell antigen information of the human leukocyte antigens (HLA, or major histocompatibility complex MHC) determined through a high or intermediate resolution molecular sequencing method of major histocompatibility complex information; generating stimulator information from the patient cell antigen information; comparing the stimulator information to the responder information; identifying presence or absence of a partial mismatch between the stimulator information and the responder information by analyzing and comparing HLA alleles of stimulator and responder, the partial mismatch comprising a 1-6 antigen units or 1-10 amino acid difference in corresponding HLA molecules of the stimulator and the respondent; selecting a patient cell and donor cell pair to prepare alloreactive cytotoxic T cells based on the presence of the partial mismatch; and combining cells of the patient with cells of the donor to generate the alloreactive cytototoxic T cells, activated against the cells of a subject which presents the antigen, in an alloreactive cytotoxic T cell reaction based on the patient cell and donor cell pair. providing patient cell antigen information, wherein the patient cell antigen information comprises patient cell antigen information determined through a high or intermediate resolution molecular sequencing method of major histocompatibility complex information; providing responder information, wherein the responder information comprises donor cell antigen information of the human leukocyte antigens (HLA, or major histocompatibility complex MHC) determined through a high or intermediate resolution molecular sequencing method of major histocompatibility complex information; generating stimulator information from the patient cell antigen information; comparing the stimulator information to the responder information; identifying presence or absence of a partial mismatch between the stimulator information and the responder information by analyzing and comparing HLA alleles of stimulator and responder, the partial mismatch comprising a 1-6 antigen units or 1-10 amino acid difference in corresponding HLA molecules of the stimulator and the respondent; selecting a patient cell and donor cell pair to prepare alloreactive cytotoxic T cells based on the presence of the partial mismatch; and combining cells of the patient with cells of the donor to generate the alloreactive cytototoxic T cells, activated against the cells of a subject which presents the antigen, in an alloreactive cytotoxic T cell reaction based on the patient cell and donor cell pair.
A method for a device-to-device, D2D, operation in a wireless communication system, the method being performed by a user equipment, UE, and comprising: determining whether a radio link failure is declared while the D2D operation is performed using a first resource scheduled by a base station, BS; performing the D2D operation on a second resource, which is autonomously selected by the UE in a resource pool, when the radio link failure is declared; the method being characterized in that it further comprises: starting a timer for switching the D2D operation back to the first resource when the radio link failure is declared; determining whether the UE receives a configuration for the D2D operation from the BS while the timer is running; stopping the timer when the UE receives a configuration for the D2D operation from the BS; and performing the D2D operation on the first resource scheduled by the BS upon stopping the timer. determining whether a radio link failure is declared while the D2D operation is performed using a first resource scheduled by a base station, BS; performing the D2D operation on a second resource, which is autonomously selected by the UE in a resource pool, when the radio link failure is declared; starting a timer for switching the D2D operation back to the first resource when the radio link failure is declared; determining whether the UE receives a configuration for the D2D operation from the BS while the timer is running; stopping the timer when the UE receives a configuration for the D2D operation from the BS; and performing the D2D operation on the first resource scheduled by the BS upon stopping the timer.
A household appliance comprising a panel enabling the user to monitor and control the functions of the household appliance; a control unit disposed behind the panel; a shaft that is connected to the control unit and that enables user preferences to be transmitted to the control unit; a housing that is disposed on the panel and wherein a knob that actuates the shaft is placed; wherein the knob comprises; ∘ a handle; ∘ ∘ an insert, wherein the insert and the handle are attached to each other so that the panel remains therebetween; ∘ a first bearing that is disposed on the insert, that protrudes out of the housing so as to extend towards the handle and wherein the shaft is borne characterized by ∘ a weight that is disposed between the insert and the handle and that is borne onto the first bearing so as to remain inside the handle and ∘ a weight holder that is disposed between the handle and the insert, that is borne onto the first bearing, that supports the weight disposed thereon and that prevents the weight from moving in the handle. ∘ a handle; ∘ ∘ an insert, wherein the insert and the handle are attached to each other so that the panel remains therebetween; ∘ a first bearing that is disposed on the insert, that protrudes out of the housing so as to extend towards the handle and wherein the shaft is borne characterized by ∘ a weight that is disposed between the insert and the handle and that is borne onto the first bearing so as to remain inside the handle and ∘ a weight holder that is disposed between the handle and the insert, that is borne onto the first bearing, that supports the weight disposed thereon and that prevents the weight from moving in the handle.
System for activating highway lanes by means of a signal, wherein - the highway lanes are structured in highway sections, each highway section comprising at least two highway lanes and - one radar detector is arranged per highway section; characterized in that - objects are recorded with the radar detector per highway section and per highway lane and recorded objects are filed in an evaluation system with the attribute RECORDED, with a distinct ID being assigned to the recorded objects of each highway lane in the evaluation system and the ID of the recorded objects being communicated from one highway section to the next highway section according to a movement of the objects; - upon a request to activate a specific highway lane, this highway lane is only signaled as negotiable by means of a control signal if there are no objects filed with the attributed RECORDED for this highway lane in the evaluation system. - the highway lanes are structured in highway sections, each highway section comprising at least two highway lanes and - one radar detector is arranged per highway section; - objects are recorded with the radar detector per highway section and per highway lane and recorded objects are filed in an evaluation system with the attribute RECORDED, with a distinct ID being assigned to the recorded objects of each highway lane in the evaluation system and the ID of the recorded objects being communicated from one highway section to the next highway section according to a movement of the objects; - upon a request to activate a specific highway lane, this highway lane is only signaled as negotiable by means of a control signal if there are no objects filed with the attributed RECORDED for this highway lane in the evaluation system.
A tape feeder in which a magnet that applies a magnetic attraction force to a component of a component supply tape is attachable to a bottom face of a tape passage on which feeding to a component pickup position is performed with the component supply tape pulled out from a tape reel, the tape feeder characterized by a tape feeding device configured to allow a tape feeding speed for feeding the component supply tape to be changed; a detection device configured to detect whether or not the magnet is attached, and a control device configured to: - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed, when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed when it is determined that the magnet is not attached. the tape feeder characterized by a tape feeding device configured to allow a tape feeding speed for feeding the component supply tape to be changed; a detection device configured to detect whether or not the magnet is attached, and a control device configured to: - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed, when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed when it is determined that the magnet is not attached. - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed, when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed when it is determined that the magnet is not attached.
Synchronization device for determining a moment of the respiratory cycle of a patient in order to assist a medical intervention on said patient, comprising: - a locating device, - a patient reference, intended to be positioned on the body of the patient, and comprising radiopaque markers, at least one locating element configured to be detectable by the locating device, and an X-ray detector intended to cooperate with an X-ray imaging device, - a control unit for recording and processing data from the locating device and the patient reference, wherein the locating device is configured to continuously record the movements of the patient reference, the movements of the patient reference corresponding to the patient's respiratory cycle, and to transmit data relating to the movements of the patient reference to the control unit, in that the X-ray detector is configured to detect the moment when a medical image is acquired by the X-ray imaging device and to transmit the corresponding data to the control unit and wherein the control unit is configured to: o determine a position, referred to as a target position, of the patient reference in a reference frame of the locating device from the at least one locating element and the X-ray detector which are positioned on the patient reference, o determine a position, referred to as a candidate position, of the patient reference in the reference frame of the locating device from the at least one locating element which is positioned on the patient reference, o compare the candidate position and the target position, o when the candidate position is not within a predefined tolerance range relative to the target position, repeat the steps of determining the candidate position and comparing the target and candidate positions until the candidate position is within a predefined tolerance range relative to the target position. - a locating device, - a patient reference, intended to be positioned on the body of the patient, and comprising radiopaque markers, at least one locating element configured to be detectable by the locating device, and an X-ray detector intended to cooperate with an X-ray imaging device, - a control unit for recording and processing data from the locating device and the patient reference, o determine a position, referred to as a target position, of the patient reference in a reference frame of the locating device from the at least one locating element and the X-ray detector which are positioned on the patient reference, o determine a position, referred to as a candidate position, of the patient reference in the reference frame of the locating device from the at least one locating element which is positioned on the patient reference, o compare the candidate position and the target position, o when the candidate position is not within a predefined tolerance range relative to the target position, repeat the steps of determining the candidate position and comparing the target and candidate positions until the candidate position is within a predefined tolerance range relative to the target position.