mhurhangee/patent-ind-claim-en huggingface dataset:
Fixing device for a prefabricated façade insulation sheet, comprising: a stud comprising a head in proximal position and a body in distal position, the head protruding transversely relative to the body and the stud comprising a first longitudinal through hole of decreasing cross-section in distal direction; and a stem comprising a proximal portion and a distal portion crossed by a second longitudinal hole , wherein the proximal portion has an outer surface of decreasing cross-section in a distal direction configured to fit in the first longitudinal hole of the stud such that, when said proximal portion of the stem is fitted into said longitudinal hole , at least the distal portion of the stem protrudes distally from the stud , the distal portion of the stem being configured to open when a screw (T) is inserted along the second longitudinal hole to be anchored to a hole made in a wall, characterized in that the first longitudinal hole of the stud has a conical shape tapering from a proximal mouth to a distal mouth and the proximal portion of the stem has a conical shape corresponding to said conical shape of the first longitudinal hole of the stud , where a length of the proximal portion of the stem is coincident with a length of the stud , such that, when the proximal portion of the stem fits into said longitudinal hole of the stud , the proximal end of the proximal portion of the stem is flush with the proximal end of the stud , and the distal end of the proximal portion of the stem is flush with the distal end of the stud . a stud comprising a head in proximal position and a body in distal position, the head protruding transversely relative to the body and the stud comprising a first longitudinal through hole of decreasing cross-section in distal direction; and a stem comprising a proximal portion and a distal portion crossed by a second longitudinal hole , wherein the proximal portion has an outer surface of decreasing cross-section in a distal direction configured to fit in the first longitudinal hole of the stud such that, when said proximal portion of the stem is fitted into said longitudinal hole , at least the distal portion of the stem protrudes distally from the stud , the distal portion of the stem being configured to open when a screw (T) is inserted along the second longitudinal hole to be anchored to a hole made in a wall, characterized in that the first longitudinal hole of the stud has a conical shape tapering from a proximal mouth to a distal mouth and the proximal portion of the stem has a conical shape corresponding to said conical shape of the first longitudinal hole of the stud , where a length of the proximal portion of the stem is coincident with a length of the stud , such that, when the proximal portion of the stem fits into said longitudinal hole of the stud , the proximal end of the proximal portion of the stem is flush with the proximal end of the stud , and the distal end of the proximal portion of the stem is flush with the distal end of the stud .
At least one non-digestible oligosaccharide selected form the group consisting of fructo-oligosaccharide, non-digestible dextrin, galacto-oligosaccharide, xylo-oligosaccharide, arabino-oligosaccharide, arabinogalacto-oligosaccharide, gluco-oligosaccharide, glucomanno-oligosaccharide, galactomanno-oligosaccharide, mannan-oligosaccharide, chito-oligosaccharide, uronic acid oligosaccharide, sialyloligosaccharide and fuco-oligosaccharide for use in the enhancement of a partial protein hydrolysate-induced oral tolerance against dietary proteins, wherein the partial protein hydrolysate is partial mammalian milk protein hydrolysate, partial whey protein hydrolysate or partial beta-lactoglobulin hydrolysate, wherein the partial protein hydrolysate comprises a mixture of three or preferably four β-lactoglobulin peptides comprising a sequence selected from the group consisting of SEQ ID NO 1, SEQ ID NO 2, SEQ ID NO 3 and SEQ ID NO 4, wherein the β-lactoglobulin peptide preferably has a molecular weight of below 5 kDa.
A manifold assembly for a surgical gas delivery system comprising: a) a manifold body including an inlet port for receiving gas from an outlet side of a compressor and an outlet port for recirculating gas to an inlet side of the compressor ; b) a bypass valve communicating with the inlet port and the outlet port of the manifold body , wherein the bypass valve includes an electro-mechanical valve actuator for dynamically controlling the flow of gas through the bypass valve ; c) an air ventilation valve operatively associated with the inlet side of the compressor , upstream from the bypass valve , wherein the air ventilation valve includes an electro-mechanical valve actuator for dynamically controlling the ingress of air from atmosphere; d) a smoke evacuation valve operatively associated with the outlet side of the compressor , upstream from the bypass valve , wherein the smoke evacuation valve includes an electro-mechanical valve actuator for dynamically controlling the egress of gas from the manifold assembly when the gas delivery system is operating in a smoke evacuation mode; and e) a gas fill valve operatively associated with the outlet side of the compressor , upstream from the bypass valve , wherein the gas fill valve includes an electro-mechanical valve actuator for dynamically controlling the receipt of gas from a source of surgical gas. a) a manifold body including an inlet port for receiving gas from an outlet side of a compressor and an outlet port for recirculating gas to an inlet side of the compressor ; b) a bypass valve communicating with the inlet port and the outlet port of the manifold body , wherein the bypass valve includes an electro-mechanical valve actuator for dynamically controlling the flow of gas through the bypass valve ; c) an air ventilation valve operatively associated with the inlet side of the compressor , upstream from the bypass valve , wherein the air ventilation valve includes an electro-mechanical valve actuator for dynamically controlling the ingress of air from atmosphere; d) a smoke evacuation valve operatively associated with the outlet side of the compressor , upstream from the bypass valve , wherein the smoke evacuation valve includes an electro-mechanical valve actuator for dynamically controlling the egress of gas from the manifold assembly when the gas delivery system is operating in a smoke evacuation mode; and e) a gas fill valve operatively associated with the outlet side of the compressor , upstream from the bypass valve , wherein the gas fill valve includes an electro-mechanical valve actuator for dynamically controlling the receipt of gas from a source of surgical gas.
A passenger seat assembly comprising a spreader assembly , the spreader assembly comprising: a lower spreader extending in a forward direction and defining a forward-most portion of the spreader assembly ; the lower spreader including a forward end and an aft end opposite of the forward end , the lower spreader including one or more apertures defined through a thickness of the lower spreader between the forward end and the aft end and configured to receive and engage base frame tube(s) of the passenger seat assembly , and an upper spreader attached to the lower spreader and extending in a vertical direction relative to the lower spreader , wherein the upper spreader is a structural shroud having a first end and a second end opposite from the first end , wherein the upper spreader defines a top-most portion of the spreader assembly , wherein the upper spreader is configured to support a seat back of the passenger seat assembly, such that connectors and/or other components configured engage with features of the seat back are provided on the structural shroud and extend outwards from an outer surface of the structural shroud , characterized in that the structural shroud comprises a first shroud and a second shroud attached to the first shroud , and wherein the first shroud and the second shroud together define a central cavity such that the upper spreader is hollow. a lower spreader extending in a forward direction and defining a forward-most portion of the spreader assembly ; the lower spreader including a forward end and an aft end opposite of the forward end , the lower spreader including one or more apertures defined through a thickness of the lower spreader between the forward end and the aft end and configured to receive and engage base frame tube(s) of the passenger seat assembly , and an upper spreader attached to the lower spreader and extending in a vertical direction relative to the lower spreader , wherein the upper spreader is a structural shroud having a first end and a second end opposite from the first end , wherein the upper spreader defines a top-most portion of the spreader assembly , wherein the upper spreader is configured to support a seat back of the passenger seat assembly, such that connectors and/or other components configured engage with features of the seat back are provided on the structural shroud and extend outwards from an outer surface of the structural shroud , characterized in that the structural shroud comprises a first shroud and a second shroud attached to the first shroud , and wherein the first shroud and the second shroud together define a central cavity such that the upper spreader is hollow.
A hardware secure element (HSMa) comprising: - a processing unit ; - a receiver circuit configured to receive data comprising a command field (CMD) and a parameter field (P) adapted to contain a plurality of parameters; and - at least one hardware parameter check module configured to receive at input a parameter to be processed (P(P_ID)) selected from said plurality of parameters; characterized in that said at least one hardware parameter check module comprises a plurality of sub-circuits (ZVC, AAC, MAXC, MCC), each sub-circuit (ZVC, AAC, MAXC, MCC) configured to process said parameter to be processed (P(P_ID)) in order to verify whether said parameter (P(P_ID)) has given characteristics; and wherein said hardware secure element (HSMa) comprises one or more look-up tables (302c; 302d, 302e) configured to: a) receive at input said command field (CMD) and a parameter index (P ID) identifying said parameter to be processed (P(P_ID)) by said hardware parameter check module , and b) determine for said command field (CMD) and said parameter index (P_ID) a configuration data element (CDE), said configuration data element (CDE) comprising data for enabling/disabling each of said sub-circuits (ZVC, AAC, MAXC, MCC) of said hardware parameter check module . - a processing unit ; - a receiver circuit configured to receive data comprising a command field (CMD) and a parameter field (P) adapted to contain a plurality of parameters; and - at least one hardware parameter check module configured to receive at input a parameter to be processed (P(P_ID)) selected from said plurality of parameters; a) receive at input said command field (CMD) and a parameter index (P ID) identifying said parameter to be processed (P(P_ID)) by said hardware parameter check module , and b) determine for said command field (CMD) and said parameter index (P_ID) a configuration data element (CDE), said configuration data element (CDE) comprising data for enabling/disabling each of said sub-circuits (ZVC, AAC, MAXC, MCC) of said hardware parameter check module .
A method to generate a frequency output on a meter electronics of a vibratory flow meter, the method comprising initializing an input clock signal having a predetermined period; calculating a flow rate based on the predetermined period; calculating a desired frequency based on the calculated flow rate and a predetermined flow rate-frequency scaling; for each input clock period, incrementally calculating a plurality of fractional pulses, characterized in that each fractional pulse of the plurality of fractional pulses is calculated based on the desired frequency times the predetermined period of the input clock signal added to a value of a preceding fractional pulse, and in that the method comprises: outputting the desired frequency by toggling an output state when the calculated fractional pulse is greater than or equal to a value of 0.5.
A composition comprising a first variant of a parent antibody, wherein the first variant is a human full-length antibody, and a second variant of a parent antibody, wherein the second variant is a human full-length antibody, wherein the first variant comprises a first Fc-domain of an immunoglobulin and an antigen-binding region, wherein the second variant comprises a second Fc-domain of an immunoglobulin and an antigen-binding region, and wherein said first variant and second variant comprises a mutation corresponding to E430G in the Fc region of a human IgG1 heavy chain and said first variant comprises a mutation corresponding to K439E in the Fc-region of a human IgG1 heavy chain, and said second variant comprises a mutation corresponding to S440K in the Fc-region of a human IgG1 heavy chain, wherein the amino acid positions are numbered according to Eu-index and wherein the first and second variant comprises an amino acid sequence having at least 95 % degree of identity to amino acid residues 130 to 330 of SEQ ID NO 1 or 5, wherein the first and second variants are capable of pairing with each other; providing a restored or increased C1q-binding, complement activation, and/or CDC, for the specific antibody variant pair, as compared to each variant alone or a mix of the parent antibody or parent antibodies.
A drainage system for aspirating and measuring of body fluids, the drainage system comprising: - a peristaltic pump housing and a peristaltic mechanism unit arranged in the peristaltic pump housing ; - a fluid collection bag being able to be secured releasably on the peristaltic pump housing ; - a rigid pre-chamber arranged to connect drainage tubing to the collection bag ;- a pressure sensor located near the rigid pre-chamber and arranged to be in communication with said pre-chamber for sensing a pressure in the rigid pre-chamber for the purpose of controlling the peristaltic pumping mechanism by a pre-set pressure and to determine the level of air leakage, and - a plurality of filling level sensors arranged on a backside of the fluid collection bag for detecting a filling level in the fluid collection bag ; and - a processor configured to: - create suction pressure in a tube system for aspirating body fluid by means of the peristaltic mechanism; - measure the suction pressure; - pause the peristaltic mechanism for a predetermined time; - monitor the suction pressure during pumping pause; and - calculate the level of air leakage based on a pressure change during pumping pause, a fixed volume of the rigid pre-chamber, and the predetermined time of pumping pause. - a peristaltic pump housing and a peristaltic mechanism unit arranged in the peristaltic pump housing ; - a fluid collection bag being able to be secured releasably on the peristaltic pump housing ; - a rigid pre-chamber arranged to connect drainage tubing to the collection bag ;- a pressure sensor located near the rigid pre-chamber and arranged to be in communication with said pre-chamber for sensing a pressure in the rigid pre-chamber for the purpose of controlling the peristaltic pumping mechanism by a pre-set pressure and to determine the level of air leakage, and - a plurality of filling level sensors arranged on a backside of the fluid collection bag for detecting a filling level in the fluid collection bag ; and - a processor configured to: - create suction pressure in a tube system for aspirating body fluid by means of the peristaltic mechanism; - measure the suction pressure; - pause the peristaltic mechanism for a predetermined time; - monitor the suction pressure during pumping pause; and - calculate the level of air leakage based on a pressure change during pumping pause, a fixed volume of the rigid pre-chamber, and the predetermined time of pumping pause. - create suction pressure in a tube system for aspirating body fluid by means of the peristaltic mechanism; - measure the suction pressure; - pause the peristaltic mechanism for a predetermined time; - monitor the suction pressure during pumping pause; and - calculate the level of air leakage based on a pressure change during pumping pause, a fixed volume of the rigid pre-chamber, and the predetermined time of pumping pause.
Component for a vehicle, in particular handle carrier of a door handle , having a receptacle to which a plug element is fastenable, wherein the receptacle being designed such that plug elements with different geometries are fastenable to the receptacle , the receptacle having detent devices , characterized in that the detent devices differ in their length in such a way that the different lengths of the individual detent devices are each assigned to a plug element .
Roll stand for rolling a rolled product , preferably a metallic strip, which stand comprises at least one roll and a processing device for processing the surface of the roll , wherein the processing device comprises at least one laser processing unit , which is equipped for processing the surface of the roll by means of a laser beam, and an adjusting device , which is equipped for setting the position and/or location of the laser processing unit relative to the surface of the roll , and the processing device further comprises at least one positioning aid which is adjustable by the adjusting device in common with the laser processing unit , wherein the positioning aid comprises an adjustment unit which is equipped for undertaking fine positioning of the laser processing unit relative to the surface of the roll and/or for ensuring a defined, preferably constant spacing of the laser processing unit relative to the surface of the roll during processing of the roll , and the adjustment unit comprises a nozzle which is in fluid connection with a gas source arranged to deliver a gas flow, preferably air flow, in direction towards the roll .
Hinge suitable to couple in a rotatable manner, around an axis of rotation (X), a mobile component, namely a seat-ring or lid of a toilet seat, and a fixed component, namely a toilet , comprising: - a mobile portion , suitable to be integrally constrained in rotation to the mobile component, and a fixed portion having an attachment part suitable to be integrally constrained to the fixed component; said mobile portion and said fixed portion being connected to each other axially; - an attachment element , in form of pin, for coupling between the attachment part of the fixed portion and the fixed component; characterized in that said attachment part is provided with a blind hole in which the attachment element is insertable at least partially for coupling between the hinge and the toilet , and in that a terminal portion of the pin and a distal portion of the hole are conical, and in that the pin comprises a friction ring to improve the coupling with the attachment part . - a mobile portion , suitable to be integrally constrained in rotation to the mobile component, and a fixed portion having an attachment part suitable to be integrally constrained to the fixed component; said mobile portion and said fixed portion being connected to each other axially; - an attachment element , in form of pin, for coupling between the attachment part of the fixed portion and the fixed component; characterized in that said attachment part is provided with a blind hole in which the attachment element is insertable at least partially for coupling between the hinge and the toilet , and in that a terminal portion of the pin and a distal portion of the hole are conical, and in that the pin comprises a friction ring to improve the coupling with the attachment part .
Method for operating a beverage vending machine, in particular a coffee machine , having the following method steps: - choosing or setting operating parameters for an operating program provided to produce a hot beverage by means of a mobile terminal, - transferring the set or chosen operating parameters to the beverage vending machine, - executing the operating program by means of the beverage vending machine on the basis of the set or chosen operating parameters so that - a rinse cycle of the beverage vending machine is carried out before the operating program, - after the rinse cycle and before the operating program a vessel to be filled is moved automatically below a beverage outlet , in particular coffee outlet, of the beverage vending machine, and - the operating program is then carried out. - choosing or setting operating parameters for an operating program provided to produce a hot beverage by means of a mobile terminal, - transferring the set or chosen operating parameters to the beverage vending machine, - executing the operating program by means of the beverage vending machine on the basis of the set or chosen operating parameters so that - a rinse cycle of the beverage vending machine is carried out before the operating program, - after the rinse cycle and before the operating program a vessel to be filled is moved automatically below a beverage outlet , in particular coffee outlet, of the beverage vending machine, and - the operating program is then carried out.
An electric motor comprising: a sensor substrate attached to one end of a stator core in an axial direction of the stator core, the sensor substrate being provided with a bearing through hole for allowing a bearing of a rotor to pass; a sensor-lead board-in connector disposed on a face opposite a stator core side of the sensor substrate , a sensor lead being connected to the sensor-lead board-in connector ; a power-supply-lead board-in connector disposed on the sensor substrate , a power supply lead being connected to the power-supply-lead board-in connector ; and a lead lead-out part that is attached to the sensor substrate and leads out the power supply lead and the sensor lead , a notch used for leading out the power supply lead and the sensor lead is provided on a periphery of the sensor substrate , the sensor-lead board-in connector is disposed radially between the bearing through hole and the notch , characterized in that , the power-supply-lead board-in connector is disposed on the face opposite the stator core side of the sensor substrate such that the power-supply-lead board-in connector faces radially the sensor-lead board-in connector with the bearing through hole therebetween, and the power-supply lead is routed from the stator core side of the lead lead-out part , through the notch , onto the face opposite the stator core side of the sensor substrate and is connected to the power-supply-lead board-in connector . a sensor substrate attached to one end of a stator core in an axial direction of the stator core, the sensor substrate being provided with a bearing through hole for allowing a bearing of a rotor to pass; a sensor-lead board-in connector disposed on a face opposite a stator core side of the sensor substrate , a sensor lead being connected to the sensor-lead board-in connector ; a power-supply-lead board-in connector disposed on the sensor substrate , a power supply lead being connected to the power-supply-lead board-in connector ; and a lead lead-out part that is attached to the sensor substrate and leads out the power supply lead and the sensor lead , a notch used for leading out the power supply lead and the sensor lead is provided on a periphery of the sensor substrate , the sensor-lead board-in connector is disposed radially between the bearing through hole and the notch , characterized in that , the power-supply-lead board-in connector is disposed on the face opposite the stator core side of the sensor substrate such that the power-supply-lead board-in connector faces radially the sensor-lead board-in connector with the bearing through hole therebetween, and the power-supply lead is routed from the stator core side of the lead lead-out part , through the notch , onto the face opposite the stator core side of the sensor substrate and is connected to the power-supply-lead board-in connector .