mhurhangee/patent-ind-claim-en huggingface dataset:
A medical catheter assembly , comprising: an elongate catheter member extending along a longitudinal axis (X) and having a proximal end, a distal end, and an outer wall , the elongate catheter member defining a first internal lumen and a second internal lumen , the outer wall including a first opening in fluid communication with the first internal lumen to facilitate establishment of a first flow stream (F1) out of the first internal lumen , and a second opening in fluid communication with the second internal lumen to facilitate establishment of a second flow stream (F2) into the second lumen , wherein the first opening is defined by a first continuous wall having first and second axial wall portions , and the second opening is defined by a second continuous wall having first and second axial wall portions , wherein the first and second openings being positioned in diametrical opposition to thereby maximize separation of the first and second openings , whereby separation of the first flow stream (F1) from the second flow stream (F2) is maximized to reduce the likelihood of recirculation between the first and second internal lumens , characterised in that the first and second openings being substantially trapezoidal in configuration and each including proximal and distal tapered portions connected by respective first and second intermediate portions , the intermediate portions having a constant transverse dimension (γ1, γ2). an elongate catheter member extending along a longitudinal axis (X) and having a proximal end, a distal end, and an outer wall , the elongate catheter member defining a first internal lumen and a second internal lumen , the outer wall including a first opening in fluid communication with the first internal lumen to facilitate establishment of a first flow stream (F1) out of the first internal lumen , and a second opening in fluid communication with the second internal lumen to facilitate establishment of a second flow stream (F2) into the second lumen , wherein the first opening is defined by a first continuous wall having first and second axial wall portions , and the second opening is defined by a second continuous wall having first and second axial wall portions , wherein the first and second openings being positioned in diametrical opposition to thereby maximize separation of the first and second openings , whereby separation of the first flow stream (F1) from the second flow stream (F2) is maximized to reduce the likelihood of recirculation between the first and second internal lumens , characterised in that the first and second openings being substantially trapezoidal in configuration and each including proximal and distal tapered portions connected by respective first and second intermediate portions , the intermediate portions having a constant transverse dimension (γ1, γ2).
A portable frozen confection machine comprising: a housing comprising a handle portion and a hopper portion , wherein the hopper portion is configured for receiving ice therein; a motor disposed within the housing, said motor comprising a drive shaft ; a blade configured to condition the ice to produce a shaved ice product; a spout configured for dispensing the shaved ice product; wherein the blade is disposed within the housing between the hopper portion and the spout such that ice received in the hopper is conditioned by the blade before it is dispensed from the spout; and characterised in that the blade is stationary with respect to the housing and a paddle is mounted on the drive shaft to move ice received in the hopper into the blade; further comprising an ice shaper , wherein the spout is configured to dispense shaved ice product into the ice shaper so as to provide a shaped top for the shaved ice product within a cup or container; and an angle is formed between a first line drawn through the handle portion and aligned with a base portion of the machine and a second line that represents the axis of rotation of the motor , wherein the angle formed between the first line and the second line is such that, in use, a user can grip the handle to dampen or otherwise negate forces generated as the machine conditions ice. a housing comprising a handle portion and a hopper portion , wherein the hopper portion is configured for receiving ice therein; a motor disposed within the housing, said motor comprising a drive shaft ; a blade configured to condition the ice to produce a shaved ice product; a spout configured for dispensing the shaved ice product; wherein the blade is disposed within the housing between the hopper portion and the spout such that ice received in the hopper is conditioned by the blade before it is dispensed from the spout; and characterised in that the blade is stationary with respect to the housing and a paddle is mounted on the drive shaft to move ice received in the hopper into the blade; further comprising an ice shaper , wherein the spout is configured to dispense shaved ice product into the ice shaper so as to provide a shaped top for the shaved ice product within a cup or container; and an angle is formed between a first line drawn through the handle portion and aligned with a base portion of the machine and a second line that represents the axis of rotation of the motor , wherein the angle formed between the first line and the second line is such that, in use, a user can grip the handle to dampen or otherwise negate forces generated as the machine conditions ice.
A method for measuring an active power (Pe) and/or a mechanical power (Pm) and/or an active energy and/or a mechanical energy of an electric motor, wherein a real current (I) of the motor is measured by at least one measurement sensor, at least a nominal power datum (Pn) of the motor, a nominal speed datum (Wn) of the motor, a nominal current datum (In) of the motor, a nominal voltage datum (Un) of the motor, a power factor datum (cosφ) of the motor and the real current (I) of the motor are inputted on at least one input interface of a calculator, a no-load current (I0) of the motor is calculated in the calculator according to a first recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the nominal voltage datum (Un) of the motor and on the power factor datum (cosφ) of the motor, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy are/is calculated in the calculator according to at least one second recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the real current (I) and on the no-load current (I0) having been calculated, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy, having been calculated, are/is provided on an output interface of the calculator. a real current (I) of the motor is measured by at least one measurement sensor, at least a nominal power datum (Pn) of the motor, a nominal speed datum (Wn) of the motor, a nominal current datum (In) of the motor, a nominal voltage datum (Un) of the motor, a power factor datum (cosφ) of the motor and the real current (I) of the motor are inputted on at least one input interface of a calculator, a no-load current (I0) of the motor is calculated in the calculator according to a first recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the nominal voltage datum (Un) of the motor and on the power factor datum (cosφ) of the motor, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy are/is calculated in the calculator according to at least one second recorded function depending at least on the nominal power datum (Pn) of the motor, on the nominal current datum (In) of the motor, on the real current (I) and on the no-load current (I0) having been calculated, the active power (Pe) and/or the mechanical power (Pm) and/or the active energy and/or the mechanical energy, having been calculated, are/is provided on an output interface of the calculator.
A hybrid parallel power supply, comprising: a first power supply connected to a power rail and configured to supply current to a load device via the power rail , the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail ; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor . a first power supply connected to a power rail and configured to supply current to a load device via the power rail , the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail ; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor .
A composition comprising: a lubricant, HFC-1234yf and HFC-134a; a lubricant, HFC-1234yf and HFC-152a; a lubricant, HFC-1234yf and HFC-32; a lubricant, HFC-1234yf, HFC-32 and HFC-125; a lubricant, HFC-1234yf, HFC-32 and HFC-143a; or a lubricant, HFC-1234yf, HFC-125 and HFC-143a; wherein the lubricant is selected from the group consisting of polyol esters and polyvinyl ethers. a lubricant, HFC-1234yf and HFC-134a; a lubricant, HFC-1234yf and HFC-152a; a lubricant, HFC-1234yf and HFC-32; a lubricant, HFC-1234yf, HFC-32 and HFC-125; a lubricant, HFC-1234yf, HFC-32 and HFC-143a; or a lubricant, HFC-1234yf, HFC-125 and HFC-143a; wherein the lubricant is selected from the group consisting of polyol esters and polyvinyl ethers.
A terminal comprising: a control section configured to determine a set of cyclic shift candidates based on whether a minimum index of control channel elements, CCEs, of a received downlink control channel is an odd number or an even number, and to determine a cyclic shift based on Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, information, the cyclic shift being one of the set of cyclic shift candidates; and a transmitting section configured to transmit a sequence based on the cyclic shift in an uplink control channel. a control section configured to determine a set of cyclic shift candidates based on whether a minimum index of control channel elements, CCEs, of a received downlink control channel is an odd number or an even number, and to determine a cyclic shift based on Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, information, the cyclic shift being one of the set of cyclic shift candidates; and a transmitting section configured to transmit a sequence based on the cyclic shift in an uplink control channel.
A fuel cell system , comprising: a solid oxide fuel cell ; a fuel gas supply passage supplying a fuel gas to an anode of the solid oxide fuel cell; an oxidizer gas supply passage supplying an oxidizer gas to a cathode of the solid oxide fuel cell; and a capturing component provided in a portion on the fuel gas supply passage and/or the oxidizer gas supply passage and containing a capturing agent to capture a poisonous substance, the capturing component being a thin film including the capturing agent formed on an inner surface of a gas channel of an interconnector of the solid oxide fuel cell without being formed on a surface of the interconnector that is in direct contact with the cathode or the anode , the interconnector being made of ferritic stainless steel, the poisonous substance being Cr and/or S, and the capturing agent including an oxide having a corundum structure and/or a titania-based oxide. a solid oxide fuel cell ; a fuel gas supply passage supplying a fuel gas to an anode of the solid oxide fuel cell; an oxidizer gas supply passage supplying an oxidizer gas to a cathode of the solid oxide fuel cell; and a capturing component provided in a portion on the fuel gas supply passage and/or the oxidizer gas supply passage and containing a capturing agent to capture a poisonous substance, the capturing component being a thin film including the capturing agent formed on an inner surface of a gas channel of an interconnector of the solid oxide fuel cell without being formed on a surface of the interconnector that is in direct contact with the cathode or the anode , the interconnector being made of ferritic stainless steel, the poisonous substance being Cr and/or S, and the capturing agent including an oxide having a corundum structure and/or a titania-based oxide.
Clean-sided water separating filter element for a fuel filter of a motor vehicle, wherein the filter element is insertable into a filter housing of the fuel filter and features the following characteristics: a) a particulate filter medium disposed between a first end plate and a second end plate of the filter element ; b) a bayonet projection in the area of the first end plate , said bayonet projection being designed for gripping behind a bayonet holder of the filter housing by rotating the filter element around its longitudinal axis of the filter element , c) an inner sealing element for separating a raw side from a water-collecting chamber of the fuel filter , wherein the inner sealing element is disposed in the area of the second end plate and wherein the bayonet projection and the bayonet holder feature a mutual friction locking in the bayonet connection, wherein the coefficient of friction of this friction locking is smaller than the coefficient of friction between the inner sealing element and a wall section of the filter housing against which the inner sealing element abuts. a) a particulate filter medium disposed between a first end plate and a second end plate of the filter element ; b) a bayonet projection in the area of the first end plate , said bayonet projection being designed for gripping behind a bayonet holder of the filter housing by rotating the filter element around its longitudinal axis of the filter element , c) an inner sealing element for separating a raw side from a water-collecting chamber of the fuel filter , wherein the inner sealing element is disposed in the area of the second end plate and wherein the bayonet projection and the bayonet holder feature a mutual friction locking in the bayonet connection, wherein the coefficient of friction of this friction locking is smaller than the coefficient of friction between the inner sealing element and a wall section of the filter housing against which the inner sealing element abuts.
A computer-implemented medical data processing method for determining a positional pattern of an irradiation unit for irradiating a patient with treatment radiation, the irradiation unit being part of a gantry of an irradiation treatment device having an imaging device for generating a medical image of the patient, the method comprising executing, on at least one processor of at least one computer, steps of: a) acquiring (S1), at the at least one processor, irradiation unit position data describing irradiation unit positions of the gantry for which the imaging device has a free viewing direction onto the position of the patient which is a free line of sight from the imaging device to the position of the patient, wherein the free line of sight is not impeded by the gantry; b) determining (S2), by the at least one processor and based on the irradiation unit position data, position orders data describing all possible orders of the irradiation unit positions for which the imaging device has a free viewing direction onto the position of the patient; c) determining (S3), by the at least one processor and based on the irradiation unit position data and the position orders data and per order described by the position orders data, intersection angle data describing a statistical quantity of the intersection angles between free viewing directions of the imaging device for irradiation unit positions which are immediately subsequent in the order described by the position orders data; d) determining (S4), by the at least one processor and based on the intersection angle data and the position orders data, optimal order data describing an order of the irradiation unit positions for which the statistical quantity is maximal. a) acquiring (S1), at the at least one processor, irradiation unit position data describing irradiation unit positions of the gantry for which the imaging device has a free viewing direction onto the position of the patient which is a free line of sight from the imaging device to the position of the patient, wherein the free line of sight is not impeded by the gantry; b) determining (S2), by the at least one processor and based on the irradiation unit position data, position orders data describing all possible orders of the irradiation unit positions for which the imaging device has a free viewing direction onto the position of the patient; c) determining (S3), by the at least one processor and based on the irradiation unit position data and the position orders data and per order described by the position orders data, intersection angle data describing a statistical quantity of the intersection angles between free viewing directions of the imaging device for irradiation unit positions which are immediately subsequent in the order described by the position orders data; d) determining (S4), by the at least one processor and based on the intersection angle data and the position orders data, optimal order data describing an order of the irradiation unit positions for which the statistical quantity is maximal.
Apparatus for heating plastic preforms with a transport device which transports the plastic preforms during their heating along a predetermined transport path, wherein this transport device has a plurality of holding devices for holding the plastic preforms during their transport, with a first feed transport device which directly transfers the plastic preforms to the transport device in a transfer region, wherein this first feed transport device having a carrier which can be rotated with respect to an axis of rotation (D) and has a plurality of holding devices which hold the plastic preforms , characterised in that each of these holding devices is in each case assigned an application device which acts upon the plastic preforms through their mouths with a flowable medium, wherein these application devices being arranged on a carrier which can be rotated about an axis of rotation (D).
A clamp for securing a pipe using first and second fasteners , the clamp comprising: a first clamping member and a second clamping member ; each clamping member including a respective clamping portion configured to engage the pipe, and a respective set of ears ; the ears of each of the clamping members extending from opposite sides of the respective clamping portion , with a first ear being configured to receive the first fastener and a second ear being configured to receive the second fastener , to secure the first and second clamping members together; each of the first and the second ears of the first clamping member including a recessed seat to receive a head of the first or the second fastener , respectively; the first ear of the first clamping member includes a mounting portion that includes the recessed seat , the mounting portion defining a substantially planar surface and the recessed seat defining a deviation from the substantially planar surface that is configured to extend away from the substantially planar surface towards the second clamping member when the first and second clamping members are secured around the pipe; wherein a seat portion of the recessed seat has a planar seating surface and wherein the seat portion is configured to form a seat for the head of the first fastener when the first fastener secures the first and second clamping members around the pipe; and wherein the seating surface of the recessed seat is not parallel to the substantially planar surface defined by the mounting portion . a first clamping member and a second clamping member ; each clamping member including a respective clamping portion configured to engage the pipe, and a respective set of ears ; the ears of each of the clamping members extending from opposite sides of the respective clamping portion , with a first ear being configured to receive the first fastener and a second ear being configured to receive the second fastener , to secure the first and second clamping members together; each of the first and the second ears of the first clamping member including a recessed seat to receive a head of the first or the second fastener , respectively; the first ear of the first clamping member includes a mounting portion that includes the recessed seat , the mounting portion defining a substantially planar surface and the recessed seat defining a deviation from the substantially planar surface that is configured to extend away from the substantially planar surface towards the second clamping member when the first and second clamping members are secured around the pipe; wherein a seat portion of the recessed seat has a planar seating surface and wherein the seat portion is configured to form a seat for the head of the first fastener when the first fastener secures the first and second clamping members around the pipe; and wherein the seating surface of the recessed seat is not parallel to the substantially planar surface defined by the mounting portion .
An automated processing method for detection of an asynchrony event between a respiratory treatment apparatus that controls a delivery of synchronized respiratory treatment and a subject's respiratory cycle, the method comprising: deriving data from a flow signal and a pressure signal respectively of a flow sensor and a pressure sensor coupled with the respiratory treatment apparatus , the flow signal being representative of the subject's respiratory flow and the pressure signal being indicative of a pressure at the subject's airway; determining features with said data; comparing with an automated processor the features with a corresponding set of thresholds; and determining with the processor an occurrence of an asynchrony event between the respiratory treatment apparatus and the subject's respiratory cycle based on the comparison, the asynchrony event comprising a double triggering event, wherein the features comprise a total expiratory volume occurring during inspiration; and wherein, in the event of double triggering, a rabbit-ears pattern is formed on the pressure signal, and the flow signal commonly follows the rabbit ears pattern, with a jagged profile revealing a retardation of inspiration. deriving data from a flow signal and a pressure signal respectively of a flow sensor and a pressure sensor coupled with the respiratory treatment apparatus , the flow signal being representative of the subject's respiratory flow and the pressure signal being indicative of a pressure at the subject's airway; determining features with said data; comparing with an automated processor the features with a corresponding set of thresholds; and determining with the processor an occurrence of an asynchrony event between the respiratory treatment apparatus and the subject's respiratory cycle based on the comparison, the asynchrony event comprising a double triggering event, wherein the features comprise a total expiratory volume occurring during inspiration; and wherein, in the event of double triggering, a rabbit-ears pattern is formed on the pressure signal, and the flow signal commonly follows the rabbit ears pattern, with a jagged profile revealing a retardation of inspiration.