mhurhangee/ep-ind-claims huggingface dataset:
An impact tool comprising: a spindle extending in an axial direction thereof; a motor configured to provide the spindle with a rotational power in accordance with a motor current flowing therethrough, the rotational power rotating the spindle about the axis at an rpm value; and a current detecting unit configured to detect a current value of the motor current, characterised by: a rotational impact system including the spindle, a hammer attached to the spindle while movable in the axial direction thereby producing rotational impact force, and an anvil rotated by the rotational impact force produced by the hammer and having an end bit holder, thereby transmitting the rotational power and the impact force to an end bit; and a current control unit configured to reduce the current value during a first time period including a timing at which the rotational impact system provides the impact force if the current value detected by the current detecting unit exceeds a predetermined value. a spindle extending in an axial direction thereof; a motor configured to provide the spindle with a rotational power in accordance with a motor current flowing therethrough, the rotational power rotating the spindle about the axis at an rpm value; and a current detecting unit configured to detect a current value of the motor current, characterised by: a rotational impact system including the spindle, a hammer attached to the spindle while movable in the axial direction thereby producing rotational impact force, and an anvil rotated by the rotational impact force produced by the hammer and having an end bit holder, thereby transmitting the rotational power and the impact force to an end bit; and a current control unit configured to reduce the current value during a first time period including a timing at which the rotational impact system provides the impact force if the current value detected by the current detecting unit exceeds a predetermined value. a rotational impact system including the spindle, a hammer attached to the spindle while movable in the axial direction thereby producing rotational impact force, and an anvil rotated by the rotational impact force produced by the hammer and having an end bit holder, thereby transmitting the rotational power and the impact force to an end bit; and a current control unit configured to reduce the current value during a first time period including a timing at which the rotational impact system provides the impact force if the current value detected by the current detecting unit exceeds a predetermined value.
A wireless communication system for communication between a truck and a trailer, the system comprising: a connector assembly coupled between the truck and the trailer, the connector assembly comprising a connector assembly housing; a first wireless communication module coupled to electronic circuitry in the truck; and a second wireless communication module coupled to electronic circuitry in the trailer, wherein the first wireless communication module and the second wireless communication module are disposed within the connector assembly housing, wherein the connector assembly housing comprises electromagnetic shielding means arranged to reduce a transmission of electromagnetic radiation between the first and second wireless communication modules and an environment outside the connector assembly housing, and wherein the first wireless communication module and the second wireless communication module are configured to establish a wireless communication link therebetween. a connector assembly coupled between the truck and the trailer, the connector assembly comprising a connector assembly housing; a first wireless communication module coupled to electronic circuitry in the truck; and a second wireless communication module coupled to electronic circuitry in the trailer, wherein the first wireless communication module and the second wireless communication module are disposed within the connector assembly housing, wherein the connector assembly housing comprises electromagnetic shielding means arranged to reduce a transmission of electromagnetic radiation between the first and second wireless communication modules and an environment outside the connector assembly housing, and wherein the first wireless communication module and the second wireless communication module are configured to establish a wireless communication link therebetween.
An atomizing device for an electronic cigarette, comprising: an atomizing sleeve defining a liquid storage chamber for containing e-liquid; a heating element, which is positioned in the atomizing sleeve, configured to heat and evaporate the e-liquid to generate vapor; a liquid absorbing unit, which contacts with the heating element, configured to absorb the e-liquid in the liquid storage chamber and transfer the e-liquid to the heating element; and a holder defining a hollow cavity, the holder configured to fix the liquid absorbing unit and the heating element, wherein the heating element is positioned in the hollow cavity; wherein, a temporary storage cavity is positioned under the holder, the holder defines at least one airflow through hole which is configured to communicate with the temporary storage cavity with the hollow cavity, wherein the temporary storage cavity is configured to communicate with an air inlet, and the air inlet is positioned in a higher position than a bottom of the temporary storage cavity; the atomizing device being characterized in that, an electrode is positioned in a center of the temporary storage cavity, a blind hole is defined in a lower end of the electrode, the air inlet is defined in a sidewall of the electrode and is configured to communicate with the blind hole, the airflow through hole is disaligned with respect to an underneath of the heating element, wherein the blind hole, the air inlet, and the airflow through hole cooperatively form a non-linear airflow channel. an atomizing sleeve defining a liquid storage chamber for containing e-liquid; a heating element, which is positioned in the atomizing sleeve, configured to heat and evaporate the e-liquid to generate vapor; a liquid absorbing unit, which contacts with the heating element, configured to absorb the e-liquid in the liquid storage chamber and transfer the e-liquid to the heating element; and a holder defining a hollow cavity, the holder configured to fix the liquid absorbing unit and the heating element, wherein the heating element is positioned in the hollow cavity; wherein, a temporary storage cavity is positioned under the holder, the holder defines at least one airflow through hole which is configured to communicate with the temporary storage cavity with the hollow cavity, wherein the temporary storage cavity is configured to communicate with an air inlet, and the air inlet is positioned in a higher position than a bottom of the temporary storage cavity; the atomizing device being characterized in that, an electrode is positioned in a center of the temporary storage cavity, a blind hole is defined in a lower end of the electrode, the air inlet is defined in a sidewall of the electrode and is configured to communicate with the blind hole, the airflow through hole is disaligned with respect to an underneath of the heating element, wherein the blind hole, the air inlet, and the airflow through hole cooperatively form a non-linear airflow channel.
A method of transmitting location information of a User Equipment, UE, characterized in that, the method comprises: a Relay Node, RN, receiving configuration information, indicating a user location information reporting condition, sent from a control plane management apparatus; and the RN sending cell-related information, indicating user location information, to the control plane management apparatus when the location information reporting condition is satisfied; wherein the cell-related information indicating the user location information is: information about a donor cell where the RN itself is located; or information about a serving cell with a TAI and/or ECGI value related to information about a donor cell where the RN itself is located. a Relay Node, RN, receiving configuration information, indicating a user location information reporting condition, sent from a control plane management apparatus; and the RN sending cell-related information, indicating user location information, to the control plane management apparatus when the location information reporting condition is satisfied; wherein the cell-related information indicating the user location information is: information about a donor cell where the RN itself is located; or information about a serving cell with a TAI and/or ECGI value related to information about a donor cell where the RN itself is located. information about a donor cell where the RN itself is located; or information about a serving cell with a TAI and/or ECGI value related to information about a donor cell where the RN itself is located.
A tunic intended to be worn by a patient during infusion therapy of medication and which allows the patient, particularly a child to feel comfortable during the treatment, which tunic is provided with one or several pockets (30, 31, 32) intended to accommodate a combination of one or more of the following units comprised in an infusion equipment; infusion bags (40, 41) with medication, infusion pumps (50, 51), batteries (60, 61) for driving of the infusion pumps, lines (53, 54) for the flow of fluid arranged between bags and pumps, a central outlet line for the flow of fluid through a catheter to the patient, wherein the tunic is made of textile, characterised in that each pocket for housing a unit comprised in the infusion equipment is formed as an openable storage compartment (30, 31, 32) which by the action of a semi-rigid spacer layer material (40, 41, 42), arranged in the textile between layers of web and having a predetermined shape, is maintained by the action of said semi-rigid spacer layer material particularly in a direction out from the tunic, and in which storage compartments the units (40, 41; 50, 51, 60, 61) comprised in the infusion equipment can be accommodated in a comfortable well-protected and discreet manner.
A process for producing a wet masterbatch comprising: a step of producing a slurry solution having a pH of 8 or more by dispersing carbon black having an average amount of surface acidic functional groups of 0.15 μeq/m 2 or more and less than 3.00 μeq/m 2, wherein the average amount of surface acidic functional groups is measured as described in the description; a step of producing a mixture by mixing the slurry solution and a rubber latex solution in a liquid phase; and a step of drying the mixture.
A system comprising a wall with an opening and an explosion vent mounted in said opening, the system comprising: - a cover being dimensioned to fit on said opening and having a perimeter with an edge adapted to seal the cover against the opening with a sealing element, - at least one spring element for holding the cover in the opening and having a direction of spring action, - opposite retaining surfaces (5, 9) in the opening and the cover acting against the spring action of element, and - wherein the sealing element is positioned against the opening so that the sealing force is directed at least partially crosswise to the direction of the spring action of the spring element, characterized in that the cover has a first surface on its perimeter edge for accommodating the sealing element and a second surface extending outwards from the first surface and forming a flange having larger dimensions than the first surface, the at least one spring element is attached on the cover on a surface that is on an opposite side of the cover in relation to the flange, and the spring element is at least one leaf spring extending over the perimeter of the cover. - a cover being dimensioned to fit on said opening and having a perimeter with an edge adapted to seal the cover against the opening with a sealing element, - at least one spring element for holding the cover in the opening and having a direction of spring action, - opposite retaining surfaces (5, 9) in the opening and the cover acting against the spring action of element, and - wherein the sealing element is positioned against the opening so that the sealing force is directed at least partially crosswise to the direction of the spring action of the spring element,
A conveyor belt module comprising: a module body in the shape of a block having three pairs of opposite sides: a continuous flat top side and a continuous flat bottom side spaced apart in a thickness direction; a leading side and a trailing side spaced apart in a length direction; and a left side and a right side spaced apart in a width direction; leading hinge elements spaced apart in the width direction across leading spaces along the leading side and trailing hinge elements spaced apart in the width direction across trailing spaces along the trailing side, wherein the leading and trailing hinge elements (16, 17) project outward in the length direction from the leading and trailing sides and wherein the leading hinge elements are aligned with the trailing spaces across the module body and the trailing hinge elements are aligned with the leading spaces across the module body; a left-side drive element (50; 60) having a drive-receiving face (58;59; 62;63) on the left side of the module body and wherein the flat bottom side is devoid of drive projections or pockets. a module body in the shape of a block having three pairs of opposite sides: a continuous flat top side and a continuous flat bottom side spaced apart in a thickness direction; a leading side and a trailing side spaced apart in a length direction; and a left side and a right side spaced apart in a width direction; a continuous flat top side and a continuous flat bottom side spaced apart in a thickness direction; a leading side and a trailing side spaced apart in a length direction; and a left side and a right side spaced apart in a width direction; leading hinge elements spaced apart in the width direction across leading spaces along the leading side and trailing hinge elements spaced apart in the width direction across trailing spaces along the trailing side, wherein the leading and trailing hinge elements (16, 17) project outward in the length direction from the leading and trailing sides and wherein the leading hinge elements are aligned with the trailing spaces across the module body and the trailing hinge elements are aligned with the leading spaces across the module body; a left-side drive element (50; 60) having a drive-receiving face (58;59; 62;63) on the left side of the module body and wherein the flat bottom side is devoid of drive projections or pockets.
A fuel cell stack assembly comprising: a first encapsulation member comprising a first end plate and two side walls extending transversely from the first end plate; a second encapsulation member comprising a second end plate; one or more fuel cells located between the first end plate and second end plate; and two locking members that are configured to engage with a respective side wall of the first encapsulation member and the second encapsulation member, in order to retain the first end plate and the second end plate in a fixed relative position, wherein the side walls of the first encapsulation member are each configured to: engage with the second encapsulation member in order to provide a compression force to the one or more fuel cells, and receive the respective locking member in a direction that is parallel to the plane of the one or more fuel cells, characterised in that, the locking members each comprise a plurality of engaging regions, wherein the plurality of engaging regions are configured to space apart the respective end plates of the first encapsulation member and the second encapsulation member by different amounts to maintain a predetermined working load on the one or more fuel cells. a first encapsulation member comprising a first end plate and two side walls extending transversely from the first end plate; a second encapsulation member comprising a second end plate; one or more fuel cells located between the first end plate and second end plate; and two locking members that are configured to engage with a respective side wall of the first encapsulation member and the second encapsulation member, in order to retain the first end plate and the second end plate in a fixed relative position, wherein the side walls of the first encapsulation member are each configured to: engage with the second encapsulation member in order to provide a compression force to the one or more fuel cells, and receive the respective locking member in a direction that is parallel to the plane of the one or more fuel cells, characterised in that, the locking members each comprise a plurality of engaging regions, wherein the plurality of engaging regions are configured to space apart the respective end plates of the first encapsulation member and the second encapsulation member by different amounts to maintain a predetermined working load on the one or more fuel cells. engage with the second encapsulation member in order to provide a compression force to the one or more fuel cells, and receive the respective locking member in a direction that is parallel to the plane of the one or more fuel cells, characterised in that, the locking members each comprise a plurality of engaging regions, wherein the plurality of engaging regions are configured to space apart the respective end plates of the first encapsulation member and the second encapsulation member by different amounts to maintain a predetermined working load on the one or more fuel cells.
A capacitive radiofrequency micro-electromechanical system or capacitive RF MEMS for high-power applications comprising a membrane suspended above an RF transmission line and resting on ground planes (6a; 6b), the membrane exhibiting a lower face and an upper face opposite to the lower face, the RF MEMS being characterised in that said membrane is metallic and in that a first layer comprising a refractory metallic material at least partially covers the upper face of the membrane so as to prevent the heating of the membrane.
An evaporation device for evaporating hydrogen peroxide, comprising a housing body having at least two fluid channels (110a-d) arranged therein, which fluid channels (110a-d) are connected to each other to form a common fluid line between an inlet and an outlet, and at least one heating element positioned within said housing body for heating said fluid channels (110a-d), wherein a first fluid channel, being directly connected to the fluid inlet, is positioned relative the at least one heating element such that its inner walls will be heated to a first temperature, characterized in that a second fluid channel, being directly connected to the fluid outlet, is positioned relative the at least one heating element such that its inner walls will be heated to a second temperature, said second temperature being higher than the first temperature.
A patient support comprising a frame, a mattress supported by the frame a barrier (1220, 1234) positioned to block egress of a patient from the mattress, the barrier (1220, 1234) including a surface defining an opening (1490, 1488) in the barrier, and a controller (1412, 1478) having a housing and a retainer coupled to the housing and configured to contact the surface of the barrier (1220, 1234) to removably couple the housing to the barrier (1220, 1234), wherein the retainer Includes a latch positioned to removably couple the housing to the barrier (1220, 1234), wherein the housing Includes an opening and the latch is positioned to extend through the opening, and wherein the latch is movable between a first position coupling the housing to the barrier (1220, 1234) and a second position permitting removal of the housing from the barrier, characterized in that the latch is biased into contact with the surface of the barrier (1220, 1234).
A cooling device comprising: • a crankcase, • a crank movable in rotation relative to the crankcase, • a piston, • a coupling member rotatably mounted on the crank, the coupling member having a first edge facing the piston and a second edge opposite the first edge, • a deformable element embedded in the coupling member and embedded in the piston, the deformable element being configured to move the piston in translation relative to the crankcase while deforming, when the crank is rotated relative to the crankcase, the cooling device being characterised in that the deformable element is embedded in the second edge of the coupling member, and in that the deformable element comprises: • a first portion extending along the second edge of the member parallel to an axis of rotation of the crank, • a second portion continuing the first portion and extending towards the piston, • a third portion continuing the second portion and extending parallel to the axis of rotation of the crank, so that the three portions (96, 98, 100) form a U overlapping the coupling member. • a crankcase, • a crank movable in rotation relative to the crankcase, • a piston, • a coupling member rotatably mounted on the crank, the coupling member having a first edge facing the piston and a second edge opposite the first edge, • a deformable element embedded in the coupling member and embedded in the piston, the deformable element being configured to move the piston in translation relative to the crankcase while deforming, when the crank is rotated relative to the crankcase, • a first portion extending along the second edge of the member parallel to an axis of rotation of the crank, • a second portion continuing the first portion and extending towards the piston, • a third portion continuing the second portion and extending parallel to the axis of rotation of the crank, so that the three portions (96, 98, 100) form a U overlapping the coupling member.
A hand-held member comprising: a hand-held part main body; and a covering material characterized by containing urethane resin, optionally further containing a resin material including (meth)acrylic resin or a copolymer of urethane and (meth)acrylic, and having viscoelasticity in a temperature range of 10 to 40°C, the covering material covering the hand-held part main body, wherein a force applied to a test piece corresponding to a displacement amount of the test piece, measured in a tensile mode by using, as the test piece, a resin material piece having the same composition as that of the covering material and setting a load by the test piece to about 1,96 N (200 gf), has a maximum value when the displacement amount is in a range of 15 to 25 mm. a hand-held part main body; and a covering material characterized by containing urethane resin, optionally further containing a resin material including (meth)acrylic resin or a copolymer of urethane and (meth)acrylic, and having viscoelasticity in a temperature range of 10 to 40°C, the covering material covering the hand-held part main body, wherein a force applied to a test piece corresponding to a displacement amount of the test piece, measured in a tensile mode by using, as the test piece, a resin material piece having the same composition as that of the covering material and setting a load by the test piece to about 1,96 N (200 gf), has a maximum value when the displacement amount is in a range of 15 to 25 mm.