mhurhangee/patent-ind-claim-en huggingface dataset:
Headrest having a cushion part which comprises at least one padded element arranged on a front side and a support element supporting the padded element , and having a carrying part which comprises connecting means for rigid attachment to/at a vehicle seat, and having a slotted guide which comprises guide elements and sliding elements which are displaceable along the guide elements , wherein the slotted guide mounts the cushion part on the carrying part , and wherein the slotted guide enables the cushion part to be moved along a movement path between a lower functional position (10 U ) and an upper functional position (10 O ), and, as the cushion part is moved along the movement path , the slotted guide at least partially pivots the cushion part about a horizontal axis, thereby changing the angle position thereof relative to the carrying part , the guide elements are arranged on the cushion part and the sliding elements are arranged on the carrying part , characterised in that the cushion part additionally comprises at least one supporting element and the carrying part additionally comprises at least one bearing element, wherein, at least between the upper functional position (10 O ) over the movement path to a middle functional position (10 M ), the supporting element comes to bear against the bearing element at least when a load acts on the cushion part from the front side.
A ceiling-mounted air conditioning indoor unit for a heat pump comprising a refrigerant circuit, the indoor unit comprising: a casing comprising an air inlet and at least one air outlet ; a drain pan in a bottom portion of the casing , the drain pan having an outer circumferential rim and an inner circumferential rim ; a heat exchanger being part of the refrigerant circuit and arranged above the drain pan so that water dropping from the heat exchanger accumulates in the drain pan ; a fan accommodated in the casing configured to draw air in the air inlet through the heat exchanger and out of the at least one air outlet , a bell mouth located at the air inlet configured for guiding drawn in air to the fan , a refrigerant leakage detection sensor configured for detecting refrigerant leaking from the refrigerant circuit, characterized in that the refrigerant leakage detection sensor is positioned between an outer surface of the inner circumferential rim of the drain pan and an inner surface of the bell mouth , wherein the outer surface of the inner circumferential rim of the drain pan and the inner surface of the bell mouth face each other. a casing comprising an air inlet and at least one air outlet ; a drain pan in a bottom portion of the casing , the drain pan having an outer circumferential rim and an inner circumferential rim ; a heat exchanger being part of the refrigerant circuit and arranged above the drain pan so that water dropping from the heat exchanger accumulates in the drain pan ; a fan accommodated in the casing configured to draw air in the air inlet through the heat exchanger and out of the at least one air outlet , a bell mouth located at the air inlet configured for guiding drawn in air to the fan , a refrigerant leakage detection sensor configured for detecting refrigerant leaking from the refrigerant circuit, characterized in that the refrigerant leakage detection sensor is positioned between an outer surface of the inner circumferential rim of the drain pan and an inner surface of the bell mouth , wherein the outer surface of the inner circumferential rim of the drain pan and the inner surface of the bell mouth face each other.
An immediate release composition suitable for reducing the chemical conversion of a precursor compound included in the composition to a drug susceptible to abuse comprising: a precursor compound that can be used in a chemical synthesis of a drug that is susceptible to abuse; a triglyceride in an amount of 1 to 50wt% of the composition; hydroxypropylcellulose; polyethylene oxide; and a disintegrant selected from the group consisting of crospovidone, sodium starch glycolate and croscarmellose sodium. a precursor compound that can be used in a chemical synthesis of a drug that is susceptible to abuse; a triglyceride in an amount of 1 to 50wt% of the composition; hydroxypropylcellulose; polyethylene oxide; and a disintegrant selected from the group consisting of crospovidone, sodium starch glycolate and croscarmellose sodium.
Implantable sensor for determining a concentration of at least one analyte in a medium, particularly in a body tissue and/or a body fluid, wherein the implantable sensor has a flexible, tubular sensor element , wherein the tubular sensor element has a flexible, tubular body , wherein at least two electrode rings for the electrochemical determination of the concentration of the analyte are mounted on the tubular body , characterized in that the at least two electrode rings are in each case wired in an alternating manner.
A fastening device (10; 110) for fastening a sanitary fitting to a mounting object, comprising: a) a nut (12; 112) having a screw threading portion (24; 124), the nut being positionable on a stud of the sanitary fitting in two positions, the stud having an outer threading , wherein - in a first position the screw threading portion (24; 124) is disengagable from the outer threading of the stud and - in a second position the screw threading portion (24; 124) is engagable with the outer threading of the stud , and b) a locking element (14; 114) configured to disallow the screw threading portion (24; 124) of the nut (12; 112) to disengage from the outer threading of the stud when the nut (12; 112) is in the second position; wherein c) the nut (12; 112) can be brought from the first position to the second position by displacing the nut (12; 112) in a non-parallel direction A with respect to the screw axis x of the stud of the sanitary fitting; characterized in that d) the fastening device (10; 110) comprises a connecting element (16; 118, 119) which provides a releasable connection between the locking element (14; 114) and the nut (12; 112) and is configured such that the locking element (14; 114) is released from the connection when the nut (12; 112) is in the second position to disallow the screw threading portion (24; 124) of the nut (12; 112) to disengage from the outer threading of the stud . a) a nut (12; 112) having a screw threading portion (24; 124), the nut being positionable on a stud of the sanitary fitting in two positions, the stud having an outer threading , wherein - in a first position the screw threading portion (24; 124) is disengagable from the outer threading of the stud and - in a second position the screw threading portion (24; 124) is engagable with the outer threading of the stud , and - in a first position the screw threading portion (24; 124) is disengagable from the outer threading of the stud and - in a second position the screw threading portion (24; 124) is engagable with the outer threading of the stud , b) a locking element (14; 114) configured to disallow the screw threading portion (24; 124) of the nut (12; 112) to disengage from the outer threading of the stud when the nut (12; 112) is in the second position; wherein c) the nut (12; 112) can be brought from the first position to the second position by displacing the nut (12; 112) in a non-parallel direction A with respect to the screw axis x of the stud of the sanitary fitting; characterized in that d) the fastening device (10; 110) comprises a connecting element (16; 118, 119) which provides a releasable connection between the locking element (14; 114) and the nut (12; 112) and is configured such that the locking element (14; 114) is released from the connection when the nut (12; 112) is in the second position to disallow the screw threading portion (24; 124) of the nut (12; 112) to disengage from the outer threading of the stud .
A hemodialysis system , comprising: a first module comprising a blood pump , the first module comprising components arranged to accommodate a display on a front face of the first module of the hemodialysis system; a blood line operatively connected to the blood pump such that the blood pump can pump blood through the blood line when the blood line is in fluid communication with a blood source; a dialyzer fluidly connected to the blood line; a second module that is separate from the first module , the second module comprising a dialysate pump ; a dialysate line operatively connected to the dialysate pump such that the dialysate pump can pump dialysate through the dialysate line when the dialysate line is in fluid communication with a dialysate source, the dialysate line being fluidly connected to the dialyzer, wherein the first and second modules are releasably secured to one another so that the first module can be removed from the second module for transport, and wherein the first module is positioned on top of the second module . a first module comprising a blood pump , the first module comprising components arranged to accommodate a display on a front face of the first module of the hemodialysis system; a blood line operatively connected to the blood pump such that the blood pump can pump blood through the blood line when the blood line is in fluid communication with a blood source; a dialyzer fluidly connected to the blood line; a second module that is separate from the first module , the second module comprising a dialysate pump ; a dialysate line operatively connected to the dialysate pump such that the dialysate pump can pump dialysate through the dialysate line when the dialysate line is in fluid communication with a dialysate source, the dialysate line being fluidly connected to the dialyzer, wherein the first and second modules are releasably secured to one another so that the first module can be removed from the second module for transport, and wherein the first module is positioned on top of the second module .
A method of determining the presence or absence of one or more M-protein peaks in a biological sample, the method comprising: (a) isolating total immunoglobulins from the sample; (b) decoupling light chain immunoglobulins from heavy chain immunoglobulins in the total immunoglobulins to generate a decoupled immunoglobulin sample; and (c) subjecting the decoupled immunoglobulin sample to a mass spectrometry technique to determine the presence or absence of an M-protein peak, optionally further comprising determining the presence or absence of monoclonal gammopathy in the sample based on the presence or absence of an M-protein peak in the mass spectrum, wherein the M-protein peaks indicate the presence of a monoclonal immunoglobulins above the polyclonal background. (a) isolating total immunoglobulins from the sample; (b) decoupling light chain immunoglobulins from heavy chain immunoglobulins in the total immunoglobulins to generate a decoupled immunoglobulin sample; and (c) subjecting the decoupled immunoglobulin sample to a mass spectrometry technique to determine the presence or absence of an M-protein peak,
A compound having a structure as shown in Formula III: wherein R 3 is -CH 3; and R 1 and R 2 are each independently H or -CH 3 , or a pharmaceutically acceptable salt thereof. R 3 is -CH 3; and R 1 and R 2 are each independently H or -CH 3 ,
A control system for controlling heating of an aftertreatment system for treating exhaust gas emitted from an internal combustion engine of a vehicle (V), the control system comprising at least one controller configured to: determine an energy usage per unit time for the vehicle (V); determine an energy usage per unit distance travelled by the vehicle (V); and set an exhaust heating setpoint (HSP1) for the aftertreatment system in dependence on the determined energy usage per unit time and the energy usage per unit distance. determine an energy usage per unit time for the vehicle (V); determine an energy usage per unit distance travelled by the vehicle (V); and set an exhaust heating setpoint (HSP1) for the aftertreatment system in dependence on the determined energy usage per unit time and the energy usage per unit distance.
Compositions comprising as component (A) 75% to 92%by weight of phase II ammonium polyphosphate and as component (B) 8% to 35% by weight of phase I ammonium polyphosphate, where the sum total of the components is 100% by weight. as component (A) 75% to 92%by weight of phase II ammonium polyphosphate and as component (B) 8% to 35% by weight of phase I ammonium polyphosphate, where the sum total of the components is 100% by weight.
Mobile cart comprising: - a base with a bottom and provided with a plurality of wheels , - the base being topped by a peripheral wall projecting upwards and conformed to delimit an inner volume sized to form a housing able to receive a gas cylinder of cylindrical shape, said gas cylinder resting on said bottom, and - two carrier arms projecting upwards, the carrier arms being secured by a first end to one of the side faces of the peripheral wall and by a second end to a plate structure topping the cart , characterised in that : - said peripheral wall comprising a front face located opposite the rear face provided with the opening , and two side faces located opposite one another, with respect to the internal volume , the front face and the two side faces forming a compartment for a cylinder with an internal volume and a U-shaped or near U-shaped cross-section, considered at the opening , the peripheral wall having an opening arranged in the rear face enabling the introduction of the gas cylinder in said internal volume and its positioning on the bottom of the base , and - the cart is formed by 2 sub-units connecting to one another and comprising: • a first sub-unit comprising at least the base , the wheels , the bottom of the base and the peripheral wall , and • a second sub-unit comprising at least the carrier arms and the plate structure . - a base with a bottom and provided with a plurality of wheels , - the base being topped by a peripheral wall projecting upwards and conformed to delimit an inner volume sized to form a housing able to receive a gas cylinder of cylindrical shape, said gas cylinder resting on said bottom, and - two carrier arms projecting upwards, the carrier arms being secured by a first end to one of the side faces of the peripheral wall and by a second end to a plate structure topping the cart , - said peripheral wall comprising a front face located opposite the rear face provided with the opening , and two side faces located opposite one another, with respect to the internal volume , the front face and the two side faces forming a compartment for a cylinder with an internal volume and a U-shaped or near U-shaped cross-section, considered at the opening , the peripheral wall having an opening arranged in the rear face enabling the introduction of the gas cylinder in said internal volume and its positioning on the bottom of the base , and - the cart is formed by 2 sub-units connecting to one another and comprising: • a first sub-unit comprising at least the base , the wheels , the bottom of the base and the peripheral wall , and • a second sub-unit comprising at least the carrier arms and the plate structure . • a first sub-unit comprising at least the base , the wheels , the bottom of the base and the peripheral wall , and • a second sub-unit comprising at least the carrier arms and the plate structure .
A system for treating an aneurysm in a blood vessel, said system comprising: an elongate flexible shaft having a proximal region and a distal region; an expandable member disposed adjacent to the distal region; a first expandable scaffold disposed over the expandable member , the first scaffold radially expandable from a collapsed configuration to an expanded configuration; a first double-walled filling structure disposed over the first scaffold, the filling structure having an outer wall and an inner wall, wherein the filling structure is adapted to be filled with a hardenable fluid filling medium so that the outer wall conforms to an inside surface of the aneurysm and the inner wall forms a first substantially tubular lumen to provide a path for blood flow, wherein the first filling structure is separate from the first scaffold , and wherein the first scaffold in the expanded configuration engages the inner wall of the filling structure; and a first releasable coupling mechanism (2918 & 2914) releasably coupling the filling structure with the flexible shaft, wherein the coupling mechanism constrains axial movement of the filling structure relative to the flexible shaft to keep the filling structure from moving relative to the scaffold and the elongate flexible shaft during delivery. an elongate flexible shaft having a proximal region and a distal region; an expandable member disposed adjacent to the distal region; a first expandable scaffold disposed over the expandable member , the first scaffold radially expandable from a collapsed configuration to an expanded configuration; a first double-walled filling structure disposed over the first scaffold, the filling structure having an outer wall and an inner wall, wherein the filling structure is adapted to be filled with a hardenable fluid filling medium so that the outer wall conforms to an inside surface of the aneurysm and the inner wall forms a first substantially tubular lumen to provide a path for blood flow, wherein the first filling structure is separate from the first scaffold , and wherein the first scaffold in the expanded configuration engages the inner wall of the filling structure; and a first releasable coupling mechanism (2918 & 2914) releasably coupling the filling structure with the flexible shaft, wherein the coupling mechanism constrains axial movement of the filling structure relative to the flexible shaft to keep the filling structure from moving relative to the scaffold and the elongate flexible shaft during delivery.
A method of using a lighting control system for temperature control, the method comprising: detecting temperature readings from a temperature sensor included in each of a plurality of light control modules , wherein each light control module is configured to cause a transmission of a quantity of electrical energy to a lighting circuit of a light fixture electrically connected to a respective light control module; characterized by grouping one or more temperature sensors of the light control modules into a first group corresponding to an interior wall based on the temperature readings being within a pre-determined range of one another; and controlling at least one of a heater and an air conditioning system to adjust one of heating and cooling by one of the heater and the air conditioning system based on the temperature readings of the first group of temperature sensors. detecting temperature readings from a temperature sensor included in each of a plurality of light control modules , wherein each light control module is configured to cause a transmission of a quantity of electrical energy to a lighting circuit of a light fixture electrically connected to a respective light control module; characterized by grouping one or more temperature sensors of the light control modules into a first group corresponding to an interior wall based on the temperature readings being within a pre-determined range of one another; and controlling at least one of a heater and an air conditioning system to adjust one of heating and cooling by one of the heater and the air conditioning system based on the temperature readings of the first group of temperature sensors.
An analysis system for analyzing biological samples comprising a controller operatively coupled to one or more analytical pre- or post-analytical work cells, the controller being operable to control the work cells, the analysis system comprising: a plurality of compartments (2a; 2b; 2c); a plurality of compartment cooling circuits (3a; 3b; 3c), wherein each of the plurality of compartment cooling circuits (3a; 3b; 3c) is configured to cool at least one of the plurality of compartments (2a; 2b; 2c); a main cooling circuit separate from the one or more compartment cooling circuits (3a; 3b; 3c), the main cooling circuit including a refrigeration device (10-13); and a cold storage , wherein the main cooling circuit is coupled to the cold storage and configured to cool the cold storage , wherein the one or more compartment cooling circuits (3a; 3b; 3c) are coupled to the cold storage , and wherein the one or more compartment cooling circuits (3a; 3b; 3c) are configured to transfer heat from the plurality of compartments (2a; 2b; 2c) into the cold storage to cool the plurality of compartments (2a; 2b; 2c), and wherein the cold storage is adapted to buffer cooling energy, characterized in that : the controller is configured to monitor an amount of energy buffered in the cold storage and control the main cooling circuit in response to the measured amount of energy in the cold storage . a plurality of compartments (2a; 2b; 2c); a plurality of compartment cooling circuits (3a; 3b; 3c), wherein each of the plurality of compartment cooling circuits (3a; 3b; 3c) is configured to cool at least one of the plurality of compartments (2a; 2b; 2c); a main cooling circuit separate from the one or more compartment cooling circuits (3a; 3b; 3c), the main cooling circuit including a refrigeration device (10-13); and a cold storage , wherein the main cooling circuit is coupled to the cold storage and configured to cool the cold storage , wherein the one or more compartment cooling circuits (3a; 3b; 3c) are coupled to the cold storage , and wherein the one or more compartment cooling circuits (3a; 3b; 3c) are configured to transfer heat from the plurality of compartments (2a; 2b; 2c) into the cold storage to cool the plurality of compartments (2a; 2b; 2c), and wherein the cold storage is adapted to buffer cooling energy, characterized in that : the controller is configured to monitor an amount of energy buffered in the cold storage and control the main cooling circuit in response to the measured amount of energy in the cold storage .