mhurhangee/ep-ind-claims huggingface dataset:
A position pointer used for position pointing operation on a capacitive position detector, the position pointer comprising: a rod-shaped housing; a sleeve connected to a tip portion of the housing; a cap made of an elastic material provided in such a manner as to protrude from the tip portion of the sleeve; a cloth adapted to cover the cap; a support member provided inside the housing to support the cap; and a first fastening member adapted to fasten the cloth to the support member, wherein at least one of the cap and the cloth is conductive, the position pointer further comprising a second fastening member adapted to fasten a hem portion of the cloth to the support member, wherein the second fastening member is a heat-shrinkable tube. a rod-shaped housing; a sleeve connected to a tip portion of the housing; a cap made of an elastic material provided in such a manner as to protrude from the tip portion of the sleeve; a cloth adapted to cover the cap; a support member provided inside the housing to support the cap; and a first fastening member adapted to fasten the cloth to the support member, wherein at least one of the cap and the cloth is conductive, the position pointer further comprising a second fastening member adapted to fasten a hem portion of the cloth to the support member, wherein the second fastening member is a heat-shrinkable tube.
A method for characterising the effects of antennal coupling between transmit path and receive path of a radiofrequency transceiver apparatus comprising at least one transmit path and at least one receive path, the method comprising the calculation of coefficients of a correcting filter, said calculation of coefficients comprising: - a step of transmitting a known signal over a transmit path, the known signal being used to characterise the effects of antennal coupling in the radiofrequency transceiver apparatus, - a step of receiving a signal over a receive path, - a step of calculating the coefficients of the correcting filter from the known signal and of the signal received over said receive path, the method being characterised in that it further comprises a step, carried out during the transmission of a useful signal over the transmit path, of filtering the signal transmitted over the transmit path by means of said correcting filter in order to determine the transmitted signal received through antennal coupling effect over the receive path, referred to as equivalent coupled signal. - a step of transmitting a known signal over a transmit path, the known signal being used to characterise the effects of antennal coupling in the radiofrequency transceiver apparatus, - a step of receiving a signal over a receive path, - a step of calculating the coefficients of the correcting filter from the known signal and of the signal received over said receive path,
Lawnmower comprising a handle that expands its length along a longitudinal axis, comprising two lower ends attached pivotably to a body of the lawnmower, said handle being suitable for passing from at least one high position to at least one low position, each of said two lower ends of the handle being rotatably connected with the body of the lawnmower by means of a fulcrum pin and a bond pin, said fulcrum pin being pivotable about a first transversal axis, and being suitable for enabling a rotation of the handle about the first axis, said bond pin being pivotable about a second transversal axis, characterized in that said bond pin is suitable for pivoting in a through hole of an eccentric washer, said eccentric washer comprising at least one recess (45, 47) suitable for engaging with at least one catch integral with the body of the lawnmower to block the eccentric washer in at least one first position of engagement corresponding to said at least one high position of the handle and in at least one second position of engagement corresponding to said at least one low position of the handle, said eccentric washer is suitable for passing from said at least one first position of engagement to said at least one second position of engagement by translating along the second axis and by rotating about the second axis.
A method of transmitting a sounding reference signal, SRS, by a user equipment, UE, the method comprising: receiving first information on a number of SRS symbols configured for the SRS in one slot and a repetition number of the SRS symbols configured for SRS transmission from a base station, BS; receiving second information on a first parameter value related to SRS bandwidth and a second parameter value related to SRS frequency hopping bandwidth from the BS; and transmitting the SRS based on the first information and the second information to the BS; wherein, based on whether the first parameter value is greater than the second parameter value, frequency hopping of the SRS is enabled, wherein the repetition number of symbols configured for SRS transmission is R, and the number of SRS symbols configured in the one slot is N, and wherein whether the SRS is transmitted with intra-slot frequency hopping and whether the SRS is transmitted with inter-slot frequency hopping are determined based on values of the N and the R. receiving first information on a number of SRS symbols configured for the SRS in one slot and a repetition number of the SRS symbols configured for SRS transmission from a base station, BS; receiving second information on a first parameter value related to SRS bandwidth and a second parameter value related to SRS frequency hopping bandwidth from the BS; and transmitting the SRS based on the first information and the second information to the BS; wherein, based on whether the first parameter value is greater than the second parameter value, frequency hopping of the SRS is enabled, wherein the repetition number of symbols configured for SRS transmission is R, and the number of SRS symbols configured in the one slot is N, and wherein whether the SRS is transmitted with intra-slot frequency hopping and whether the SRS is transmitted with inter-slot frequency hopping are determined based on values of the N and the R.
A mobile robot comprising: - a motor drive unit; - a navigation system coupled to the motor drive unit for controlling a movement of the robot in a geographical area; characterised in that it further comprises: - a safety system comprising: ∘ a second receiver for receiving second position data from the robot, ∘ means for immobilising the robot, capable of immobilising the robot independently of the control of the movement of the robot by the navigation system, and coupled to the second receiver to be controlled on the basis of the second position data. - a motor drive unit; - a navigation system coupled to the motor drive unit for controlling a movement of the robot in a geographical area; - a safety system comprising: ∘ a second receiver for receiving second position data from the robot, ∘ means for immobilising the robot, capable of immobilising the robot independently of the control of the movement of the robot by the navigation system, and coupled to the second receiver to be controlled on the basis of the second position data. ∘ a second receiver for receiving second position data from the robot, ∘ means for immobilising the robot, capable of immobilising the robot independently of the control of the movement of the robot by the navigation system, and coupled to the second receiver to be controlled on the basis of the second position data.
A vehicle anti-siphon inlet device comprising: a mounting structure for attachment to the inlet of a vehicle fuel tank; a tubular inlet body having a central bore defined by a tubular wall and having a longitudinal axis; the tubular body having a length defined between a proximal end and a distal end; the tubular body depending from the mounting structure at the proximal end; the tubular wall being open at the proximal end for receiving fuel; a plurality of apertures (8, 9) provided through the tubular wall for egress of fuel; wherein the distal end of the tubular body is blocked by a baffle defining a baffle surface facing into the bore of the tubular body, wherein at least a portion of the baffle surface is inclined at an acute angle relative to the longitudinal axis to deflect fuel towards apertures (8,9) in the tubular wall; wherein the baffle surface is at least substantially free from apertures such that no more than 25% of the baffle surface is apertured; wherein a peripheral portion of the base of the baffle curves radially outwards towards the tubular wall such that the peripheral portion defines a concave portion of the baffle surface which faces the tubular body; wherein the baffle extends along at least about 25% the length of the tubular body in a direction parallel to said longitudinal axis of the tubular body; and wherein the surface of the baffle rises to an apex and the baffle comprises a single axial bore which passes from the apex of the baffle surface to the bottom surface. a mounting structure for attachment to the inlet of a vehicle fuel tank; a tubular inlet body having a central bore defined by a tubular wall and having a longitudinal axis; the tubular body having a length defined between a proximal end and a distal end; the tubular body depending from the mounting structure at the proximal end; the tubular wall being open at the proximal end for receiving fuel; a plurality of apertures (8, 9) provided through the tubular wall for egress of fuel; wherein the distal end of the tubular body is blocked by a baffle defining a baffle surface facing into the bore of the tubular body, wherein at least a portion of the baffle surface is inclined at an acute angle relative to the longitudinal axis to deflect fuel towards apertures (8,9) in the tubular wall; wherein the baffle surface is at least substantially free from apertures such that no more than 25% of the baffle surface is apertured; wherein a peripheral portion of the base of the baffle curves radially outwards towards the tubular wall such that the peripheral portion defines a concave portion of the baffle surface which faces the tubular body; wherein the baffle extends along at least about 25% the length of the tubular body in a direction parallel to said longitudinal axis of the tubular body; and wherein the surface of the baffle rises to an apex and the baffle comprises a single axial bore which passes from the apex of the baffle surface to the bottom surface.
Apparatus for providing a heated cleaning fluid to a vehicle surface comprising: a) an inlet port for receiving an amount of fluid; b) a housing defining an interior reservoir and including said inlet port for receiving fluid that enters an interior region of said interior reservoir; c) an outlet port in fluid communication with the interior region of said interior reservoir for dispensing an amount of heated fluid to a downstream nozzle; d) a heater element for heating fluid that passes from the inlet port to the outlet port through said interior reservoir; e) a heat exchanger in thermal contact with the heater element for conveying heat to the fluid within the interior reservoir; f) a temperature sensor in physical contact with the heat exchanger for sensing the temperature of the washer fluid as the heat exchanger transmits heat from the heater element to fluid in said interior reservoir; and g) a control circuit coupled to the temperature sensor, the temperature sensor providing a feedback signal to the control circuit and the control circuit monitoring a temperature sensor output signal energizing the heater element with a voltage to heat the heating element and control a temperature of the washer fluid passing from the inlet port to the outlet port through said interior reservoir, the apparatus being characterised in that the outlet port is included on the same side of said housing as said inlet port and in that the heat exchanger has struts supported by an interior wall of said interior reservoir in a position to be at least partially covered by fluid within said interior reservoir. a) an inlet port for receiving an amount of fluid; b) a housing defining an interior reservoir and including said inlet port for receiving fluid that enters an interior region of said interior reservoir; c) an outlet port in fluid communication with the interior region of said interior reservoir for dispensing an amount of heated fluid to a downstream nozzle; d) a heater element for heating fluid that passes from the inlet port to the outlet port through said interior reservoir; e) a heat exchanger in thermal contact with the heater element for conveying heat to the fluid within the interior reservoir; f) a temperature sensor in physical contact with the heat exchanger for sensing the temperature of the washer fluid as the heat exchanger transmits heat from the heater element to fluid in said interior reservoir; and g) a control circuit coupled to the temperature sensor, the temperature sensor providing a feedback signal to the control circuit and the control circuit monitoring a temperature sensor output signal energizing the heater element with a voltage to heat the heating element and control a temperature of the washer fluid passing from the inlet port to the outlet port through said interior reservoir,
A laundry dryer comprising: - a body; - a drum for performing a drying process therein that is disposed in the body; - a door that is disposed in the front wall of the body and that provides access to the drum; - a filter for accumulating lint that come off from the laundry thereon; - at least one heat exchanger that is disposed in the body for dehumidifying and heating up the drying air; - a receptacle for water containing lint draining and being transferred from the filter and/or the heat exchanger; - a pump for enabling the water accumulated in the receptacle to be discharged; - a base unit that is disposed under the drum and that carries the heat exchanger and the elements such as the motor, fan, etc. for realizing the drying air cycle, and - a cover that is disposed at the front portion of the body and that provides access to the heat exchanger, wherein a gap is arranged between the heat exchanger and the cover and wherein the receptacle and the pump are disposed on the base unit under the gap, - a grill that is mounted at the suction port of the pump, and - a stripper that is disposed on the grill and that enables the lint accumulated on the grill to be stripped. - a body; - a drum for performing a drying process therein that is disposed in the body; - a door that is disposed in the front wall of the body and that provides access to the drum; - a filter for accumulating lint that come off from the laundry thereon; - at least one heat exchanger that is disposed in the body for dehumidifying and heating up the drying air; - a receptacle for water containing lint draining and being transferred from the filter and/or the heat exchanger; - a pump for enabling the water accumulated in the receptacle to be discharged; - a base unit that is disposed under the drum and that carries the heat exchanger and the elements such as the motor, fan, etc. for realizing the drying air cycle, and - a cover that is disposed at the front portion of the body and that provides access to the heat exchanger, wherein a gap is arranged between the heat exchanger and the cover and wherein the receptacle and the pump are disposed on the base unit under the gap, - a grill that is mounted at the suction port of the pump, and - a stripper that is disposed on the grill and that enables the lint accumulated on the grill to be stripped. - a stripper that is disposed on the grill and that enables the lint accumulated on the grill to be stripped.
A work machine with a function to prevent an interference of an end attachment and a cab, the work machine comprising: a traveling undercarriage; an upper rotating structure swingably mounted on the traveling undercarriage; the cab mounted on the upper rotating structure; a cab elevator configured to move up and down the cab; an attachment including a boom and an arm, the attachment being attached to the upper rotating structure; a first sensor configured to obtain an angle of rotation of the boom; a second sensor configured to obtain an angle of rotation of the arm; a third sensor configured to obtain an angle of rotation of the end attachment attached to an end of the attachment; and a control device configured to restrict or stop a motion of reducing a distance between the end attachment and the cab by controlling a control valve installed in a pilot line related to an operation of the attachment and the cab in response to determining that the end attachment has entered a predetermined region based on outputs of the first sensor, the second sensor, and the third sensor, wherein the control device is configured to set the predetermined region according to a position of the cab and move the predetermined region as a vertical position of the cab is changed by the cab elevator. a traveling undercarriage; an upper rotating structure swingably mounted on the traveling undercarriage; the cab mounted on the upper rotating structure; a cab elevator configured to move up and down the cab; an attachment including a boom and an arm, the attachment being attached to the upper rotating structure; a first sensor configured to obtain an angle of rotation of the boom; a second sensor configured to obtain an angle of rotation of the arm; a third sensor configured to obtain an angle of rotation of the end attachment attached to an end of the attachment; and a control device configured to restrict or stop a motion of reducing a distance between the end attachment and the cab by controlling a control valve installed in a pilot line related to an operation of the attachment and the cab in response to determining that the end attachment has entered a predetermined region based on outputs of the first sensor, the second sensor, and the third sensor, wherein the control device is configured to set the predetermined region according to a position of the cab and move the predetermined region as a vertical position of the cab is changed by the cab elevator.
A fuel pump system, comprising: an inlet line; a motorized pump having a motorized pump inlet in fluid communication with the inlet line to receive fuel from the inlet line, and a motorized pump outlet configured to output flow from the motorized pump; a first selector valve in fluid communication with the inlet line at a first inlet port, wherein the first selector valve is in fluid communication with the motorized pump outlet via a first outlet branch at a second inlet port to receive fuel from the motorized pump outlet, wherein the first selector valve is configured to selectively communicate the first inlet port to an outlet port, and to selectively communicate the second inlet port to the outlet port; a main fuel pump having a main fuel pump inlet in fluid communication with the first selector valve to be downstream of the first selector valve, and having a main fuel pump outlet; and a second selector valve in fluid communication with the main fuel pump outlet at a first input port, wherein the second selector valve is in fluid communication with the motorized pump outlet via a second outlet branch at a second input port to receive fuel from the motorized pump outlet, wherein the second selector valve is configured to selectively communicate the first input port to an output port, and to selectively communicate the second input port to the output port, wherein the output port is in fluid communication with an outlet line. an inlet line; a motorized pump having a motorized pump inlet in fluid communication with the inlet line to receive fuel from the inlet line, and a motorized pump outlet configured to output flow from the motorized pump; a first selector valve in fluid communication with the inlet line at a first inlet port, wherein the first selector valve is in fluid communication with the motorized pump outlet via a first outlet branch at a second inlet port to receive fuel from the motorized pump outlet, wherein the first selector valve is configured to selectively communicate the first inlet port to an outlet port, and to selectively communicate the second inlet port to the outlet port; a main fuel pump having a main fuel pump inlet in fluid communication with the first selector valve to be downstream of the first selector valve, and having a main fuel pump outlet; and a second selector valve in fluid communication with the main fuel pump outlet at a first input port, wherein the second selector valve is in fluid communication with the motorized pump outlet via a second outlet branch at a second input port to receive fuel from the motorized pump outlet, wherein the second selector valve is configured to selectively communicate the first input port to an output port, and to selectively communicate the second input port to the output port, wherein the output port is in fluid communication with an outlet line.
A multi-chamber dosage form comprising: (a) an inner first chamber containing one or more species of probiotic bacteria, and (b) an outer second chamber containing a prebiotic nutrient for the probiotic bacteria and for the existing microbiome, the first chamber and the second chamber being separated by at least one wall, wherein the inner chamber is completely enclosed by the outer chamber, and wherein the multi-chamber dosage form is adapted to be inserted into a rectum or vagina of a subject and wherein the outer chamber is solid at room temperature when in a dry environment, but melts at body temperature when in contact with the mucosa of the subject's rectum or vagina and wherein the multi-chamber dosage form is a capsule, a suppository, a capsule embedded within a prefilled applicator or a capsule embedded within a sealed pouch. (a) an inner first chamber containing one or more species of probiotic bacteria, and (b) an outer second chamber containing a prebiotic nutrient for the probiotic bacteria and for the existing microbiome, the first chamber and the second chamber being separated by at least one wall,
A method for manufacturing cylindrical inductively heatable aerosol generating articles, the method comprising: (i) supplying a plurality of cylindrical aerosol generating articles to a plurality of first receiving portions of a first transfer unit; (ii) supplying a plurality of inductively heatable susceptor elements to a second receiving portion of a second unit; (iii) aligning a longitudinal direction of the first receiving portions and a longitudinal direction of the second receiving portion; (iv) sequentially positioning one of said inductively heatable susceptor elements in each of said cylindrical aerosol generating articles by sequentially moving each of the cylindrical aerosol generating articles supplied to the first receiving portions and the inductively heatable susceptor elements supplied to the second receiving portion relative to each other. (i) supplying a plurality of cylindrical aerosol generating articles to a plurality of first receiving portions of a first transfer unit; (ii) supplying a plurality of inductively heatable susceptor elements to a second receiving portion of a second unit; (iii) aligning a longitudinal direction of the first receiving portions and a longitudinal direction of the second receiving portion; (iv) sequentially positioning one of said inductively heatable susceptor elements in each of said cylindrical aerosol generating articles by sequentially moving each of the cylindrical aerosol generating articles supplied to the first receiving portions and the inductively heatable susceptor elements supplied to the second receiving portion relative to each other.