mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary packaging holder for holding a primary packaging holder , wherein the secondary packaging holder comprises: a first plate configured to secure a first end of an opening ; and a second plate configured to secure an opposing second end of the opening ; and wherein the first plate comprises a first securing feature and the second plate comprises a second securing feature , the first and second securing features being capable of jointly securing and irreversibly holding the primary packaging holder in the secondary packaging holder ; and characterized in that the second packaging holder further comprises: a body having the opening therethrough; wherein the body comprises a base , a top and a first and second planar wall extending from opposing ends of the base in parallel to opposing ends of the top , the base comprising a plurality of cavities or apertures , and the top comprising a receiving portion configured to receive the primary packaging holder . a first plate configured to secure a first end of an opening ; and a second plate configured to secure an opposing second end of the opening ; and wherein the first plate comprises a first securing feature and the second plate comprises a second securing feature , the first and second securing features being capable of jointly securing and irreversibly holding the primary packaging holder in the secondary packaging holder ; and characterized in that the second packaging holder further comprises: a body having the opening therethrough; wherein the body comprises a base , a top and a first and second planar wall extending from opposing ends of the base in parallel to opposing ends of the top , the base comprising a plurality of cavities or apertures , and the top comprising a receiving portion configured to receive the primary packaging holder . a body having the opening therethrough; wherein the body comprises a base , a top and a first and second planar wall extending from opposing ends of the base in parallel to opposing ends of the top , the base comprising a plurality of cavities or apertures , and the top comprising a receiving portion configured to receive the primary packaging holder .
External part for a portable object, the external part being made of a first material, the first material being an insulating ceramic material, characterised in that the surface of said external part is locally treated such that the surface includes an insulating region and a conductive region, the conductive region having at least one converted portion with non-zero electrical conductivity and in that said surface comprises: - at least one recess , the surface being treated so as to be converted into carbide or nitride and polished in order to localise this converted portion at said hollow, or - at least one protruding part , the surface being treated so as to be converted into carbide or nitride and polished in order to exclude this converted portion from said hollow. - at least one recess , the surface being treated so as to be converted into carbide or nitride and polished in order to localise this converted portion at said hollow, or - at least one protruding part , the surface being treated so as to be converted into carbide or nitride and polished in order to exclude this converted portion from said hollow.
Automatic coffee maker comprising a system for making coffee and a water delivery system for delivering water to the system for making coffee comprising a housing disposed with a tank , a basin , an overflow duct having, an overflow tube with an overflow opening , and at the upper portion thereof, a water supply adapter , further comprising on the side thereof an housing opening for communicating the water tank having a spout , with the basin for transporting excess water from the tank to the basin , wherein the water delivery system additionally has a water inlet communicated with a valve electrically actuated by an actuator which is supplied by an electrical circuit provided with at least one electric overflow sensor , with a first electrical contact , disconnecting the actuator from the power supply for shifting the valve from open to close position, when the water delivered to a basin by an overflow duct achieved defined level, the electrical circuit further comprises a tank sensor provided with a second electrical contact for controlling the actuator , characterized in that the tank sensor is an electrical switch, which can be operated by contact with the water tank so the second electrical contact is closed only when the tank is in the contact with said electrical switch.
An integration module of millimeter-wave and non-millimeter-wave antennas,comprising: a module carrier , one or more millimeter-wave antennas arranged on a surface of the module carrier , one or more non-millimeter-wave antennas , and a radio frequency integrated circuit ; wherein the radio frequency integrated circuit is electrically connected to the millimeter-wave antenna(s) , and wherein the radio frequency integrated circuit and the non-millimeter-wave antenna(s) are set on different planes of the module carrier ; the integration module being characterised in that the planes where the non-millimeter-wave antenna(s) are arranged are not parallel to the plane where the radio frequency integrated circuit is arranged. a module carrier , one or more millimeter-wave antennas arranged on a surface of the module carrier , one or more non-millimeter-wave antennas , and a radio frequency integrated circuit ; wherein the radio frequency integrated circuit is electrically connected to the millimeter-wave antenna(s) , and wherein the radio frequency integrated circuit and the non-millimeter-wave antenna(s) are set on different planes of the module carrier ; the integration module being characterised in that the planes where the non-millimeter-wave antenna(s) are arranged are not parallel to the plane where the radio frequency integrated circuit is arranged.
An article (10; 100) comprising: a component (14; 36; 60, 62, 64; 120) formed of a plurality of affixed foam particles and a binding material, wherein each individual foam particle is formed of a thermoplastic elastomeric material, and includes one or more binding regions on an outer surface of the individual foam particle affixing the individual foam particle to one or more adjacent foam particles, the one or more binding regions including a binding material, wherein the binding material is a thermal energy absorber; an adhesive material; or one or more solvents capable of softening or partially solubilizing a portion of a foam particle or capable of softening or partially solubilizing a coating applied to a foam particle; or combinations thereof, and the one or more adjacent foam particles comprising a thermoplastic elastomeric material, wherein the component includes a plurality of gaps between foam particles, and comprises a plurality of sub-regions comprising differentially affixed foam particles, or a gradient of differentially affixed foam particles, wherein, prior to affixing, the plurality of foam particles have a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and wherein a surface of the component includes a portion of foam particles that are embossed or debossed. a component (14; 36; 60, 62, 64; 120) formed of a plurality of affixed foam particles and a binding material, wherein each individual foam particle is formed of a thermoplastic elastomeric material, and includes one or more binding regions on an outer surface of the individual foam particle affixing the individual foam particle to one or more adjacent foam particles, the one or more binding regions including a binding material, wherein the binding material is a thermal energy absorber; an adhesive material; or one or more solvents capable of softening or partially solubilizing a portion of a foam particle or capable of softening or partially solubilizing a coating applied to a foam particle; or combinations thereof, and the one or more adjacent foam particles comprising a thermoplastic elastomeric material, wherein the component includes a plurality of gaps between foam particles, and comprises a plurality of sub-regions comprising differentially affixed foam particles, or a gradient of differentially affixed foam particles, wherein, prior to affixing, the plurality of foam particles have a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and wherein a surface of the component includes a portion of foam particles that are embossed or debossed.
A castor wheel structure, comprising a wheel part and a castor wheel house , on which a transition element can be mounted, such as a spindle structure or a flange structure , which again can be mounted on equipment that is to be made mobile, which wheel part is unilaterally suspended and arranged about a substantially horizontal shaft on the castor wheel house , which castor wheel structure also comprises a seal to be arranged between the transition element (1 or 2) and the upper part of the castor wheel house , which seal is configured with contours which substantially ensure continuous surfaces characterized in that the castor wheel structure further comprises a seal between the wheel part and the castor wheel house , which seal is configured with contours which substantially ensure continuous surfaces, wherein the castor wheel structure comprises a brake shaft fitted with a crank , which brake shaft is provided with a seal that ensures sealing between the brake shaft and the castor wheel house .
A catheter placement system , comprising: a catheter housing defining a longitudinal axis; an elongate medical device disposed within an interior cavity of the catheter housing; and a needle housing including a needle extending distally therefrom, the needle housing releasably coupled to a distal end of the catheter housing and including a needle retraction mechanism configured to split the needle along a longitudinal axis, retract the needle into the needle housing and roll the needle up on itself. a catheter housing defining a longitudinal axis; an elongate medical device disposed within an interior cavity of the catheter housing; and a needle housing including a needle extending distally therefrom, the needle housing releasably coupled to a distal end of the catheter housing and including a needle retraction mechanism configured to split the needle along a longitudinal axis, retract the needle into the needle housing and roll the needle up on itself.
Method for introducing a marking by means of a laser beam generated by a laser generator into a layer of a security document , wherein the marking comprises a plurality of pixels (BP) in at least a first path connecting the pixels (BP), the laser beam is guided by means of at least one movable deflection mirror of a deflection device along the first path connecting the pixels (BP) on the layer , characterized in that a movement of the laser beam through the deflection device takes place continuously, and for generating one of the pixels (BP) of the marking during the continuous movement by the deflection device a pulse sequence of two or more subsequent laser pulses of the laser beam is generated. the marking comprises a plurality of pixels (BP) in at least a first path connecting the pixels (BP), the laser beam is guided by means of at least one movable deflection mirror of a deflection device along the first path connecting the pixels (BP) on the layer , characterized in that a movement of the laser beam through the deflection device takes place continuously, and for generating one of the pixels (BP) of the marking during the continuous movement by the deflection device a pulse sequence of two or more subsequent laser pulses of the laser beam is generated.
A comb , comprising a plurality of comb teeth protruding from a comb main body having a longitudinal direction thereof are arrayed, wherein the plurality of comb teeth having first comb teeth each having a stepped part that is formed at an intermediate position of each first comb tooth in a protruding direction thereof, wherein a first section of the first comb tooth that extends from a tip end side to the stepped part has a smaller dimension in a direction perpendicular to the protruding direction of the first comb tooth , compared with a second section that extends from the stepped part to a root side , and wherein the stepped part is formed slantly with respect to the protruding direction so that the stepped part spreads toward the root side of the first comb tooth , wherein the plurality of comb teeth comprises a plurality of other comb teeth having no stepped part and being arrayed parallel to the row of the plurality of first comb teeth having the stepped part , characterized in that an interval of the other comb teeth having no stepped part is wider than an interval of the first comb teeth having the stepped part .
A terminal comprising: a transmitting unit configured to transmit channel state information and / or reference signal to a radio base station by using predetermined radio resources by Semi-Persistent transmission method; and a controlling unit configured to retain the predetermined radio resources and deactivate transmission performed by the transmitting unit when a time alignment timer of an uplink transmission expires, wherein the controlling unit is configured to, when the time alignment timer expires, deactivate transmission of the channel state information performed by the transmitting unit and to control the reference signal differently from a control of the channel state information. a transmitting unit configured to transmit channel state information and / or reference signal to a radio base station by using predetermined radio resources by Semi-Persistent transmission method; and a controlling unit configured to retain the predetermined radio resources and deactivate transmission performed by the transmitting unit when a time alignment timer of an uplink transmission expires, wherein the controlling unit is configured to, when the time alignment timer expires, deactivate transmission of the channel state information performed by the transmitting unit and to control the reference signal differently from a control of the channel state information.
Temperature sensor for an engine of a vehicle, comprising: a casing containing a circuit board and traversed by at least one pair of wires provided with terminals , the terminal being made up of a portion crimped onto a conductor arranged in the casing , a connector comprising at least one metal insert ensuring the electrical connection with the circuit board , characterized in that the casing comprises at least one flange for holding the terminals , the terminals being folded, the flange being fixed to the casing via the plastic deformation of at least one holding stud provided in the casing , the diameter of a stud being greater than or equal to 1.5 mm. a casing containing a circuit board and traversed by at least one pair of wires provided with terminals , the terminal being made up of a portion crimped onto a conductor arranged in the casing , a connector comprising at least one metal insert ensuring the electrical connection with the circuit board , characterized in that the casing comprises at least one flange for holding the terminals , the terminals being folded, the flange being fixed to the casing via the plastic deformation of at least one holding stud provided in the casing , the diameter of a stud being greater than or equal to 1.5 mm.
Heat exchanger for cooling a working medium by means of a cooling medium with separation of the mediums, - comprising a housing having a housing casing , a working medium inlet , a working medium outlet , a cooling medium inlet and a cooling medium outlet , - comprising a heat exchanger block which is located in the inside of the housing and has a front end cap near the working medium inlet and a rear end cap remote from the working medium inlet , as well as multiple working medium pipes for carrying the working medium , which pipes pass through the two end caps and are securely connected to the two end caps , - wherein a working medium path leads from the working medium inlet internally through the working medium pipes to the working medium outlet , - wherein a cooling medium path leads from the cooling medium inlet externally around the working medium pipes to the cooling medium outlet , - wherein a first axial ring seal is arranged axially between an edge of the rear base , said edge running around and projecting radially over the working medium pipes , and a step on the housing , said step running around along the edge , characterised in that the housing has at least one clip-in contour in its inside in the region of the step , which cooperates with a mating clip-in contour on the edge on a rear side of the edge facing away from the first ring seal . - comprising a housing having a housing casing , a working medium inlet , a working medium outlet , a cooling medium inlet and a cooling medium outlet , - comprising a heat exchanger block which is located in the inside of the housing and has a front end cap near the working medium inlet and a rear end cap remote from the working medium inlet , as well as multiple working medium pipes for carrying the working medium , which pipes pass through the two end caps and are securely connected to the two end caps , - wherein a working medium path leads from the working medium inlet internally through the working medium pipes to the working medium outlet , - wherein a cooling medium path leads from the cooling medium inlet externally around the working medium pipes to the cooling medium outlet , - wherein a first axial ring seal is arranged axially between an edge of the rear base , said edge running around and projecting radially over the working medium pipes , and a step on the housing , said step running around along the edge , characterised in that the housing has at least one clip-in contour in its inside in the region of the step , which cooperates with a mating clip-in contour on the edge on a rear side of the edge facing away from the first ring seal .
A method performed by a radio access point in a wireless network for handling a two-way communication between a first wireless device (D1) and a second wireless device (D2), wherein the first and second wireless devices (D1, D2) are both served by the radio access point , and wherein a set of candidate transmission modes is available for use in the two-way communication, the method comprising: - identifying a set of radio resources available for use in the two-way communication, - obtaining a mode-specific quality metric related to a predicted Signal to Interference and Noise Ratio, SINR, for each candidate transmission mode in the set of candidate transmission modes , based on the identified set of radio resources, - selecting a candidate transmission mode from the set of candidate transmission modes based on the mode-specific quality metrics obtained for the set of candidate transmission modes , and - applying the selected candidate transmission mode for the two-way communication between the first and second wireless devices (D1, D2), wherein applying the selected candidate transmission mode comprises allocating radio resources to the first and second wireless devices (D1, D2) according to the selected candidate transmission mode, the method being characterised in that the radio resources of the identified set of radio resources are selected in a random manner among radio resources that are least used within the coverage area of the radio access point. - identifying a set of radio resources available for use in the two-way communication, - obtaining a mode-specific quality metric related to a predicted Signal to Interference and Noise Ratio, SINR, for each candidate transmission mode in the set of candidate transmission modes , based on the identified set of radio resources, - selecting a candidate transmission mode from the set of candidate transmission modes based on the mode-specific quality metrics obtained for the set of candidate transmission modes , and - applying the selected candidate transmission mode for the two-way communication between the first and second wireless devices (D1, D2), wherein applying the selected candidate transmission mode comprises allocating radio resources to the first and second wireless devices (D1, D2) according to the selected candidate transmission mode,
A dialysis system comprising: a dialysis machine ; and a water purification system , the water purification system comprising a pre-treatment system and a primary treatment system , wherein the water purification system is provided within a portable unit defining an enclosure, and wherein the dialysis machine is removably provided on an upper surface of the enclosure of the portable unit ; and characterised in that the portable unit is between approximately 800 and 970 mm in height. a dialysis machine ; and a water purification system , the water purification system comprising a pre-treatment system and a primary treatment system , wherein the water purification system is provided within a portable unit defining an enclosure, and wherein the dialysis machine is removably provided on an upper surface of the enclosure of the portable unit ; and
Method for the preparation of living, microbial samples for a subsequent mass-spectrometric measurement, comprising the steps: (a) providing a flat sample support containing several sample spots; (b) depositing at least one living, microbial sample in a droplet of nutrient medium on at least one of the sample spots; (c) placing the sample support into an incubation space with defined atmosphere for a predetermined period of time to stimulate the growth of microorganisms; (d) removing residual liquid of the droplet of nutrient medium after the predetermined period of time to expose a deposit of microorganisms on the sample spot; (e) preparing the sample spot for a desorbing ionization; (f) transferring the sample support into a desorption ion source of a mass spectrometer, generating ions from the prepared sample spot and acquiring at least one corresponding mass spectrum; and (g) comparing the mass spectrum acquired with a reference data set to determine at least one characteristic of the microbial sample. (a) providing a flat sample support containing several sample spots; (b) depositing at least one living, microbial sample in a droplet of nutrient medium on at least one of the sample spots; (c) placing the sample support into an incubation space with defined atmosphere for a predetermined period of time to stimulate the growth of microorganisms; (d) removing residual liquid of the droplet of nutrient medium after the predetermined period of time to expose a deposit of microorganisms on the sample spot; (e) preparing the sample spot for a desorbing ionization; (f) transferring the sample support into a desorption ion source of a mass spectrometer, generating ions from the prepared sample spot and acquiring at least one corresponding mass spectrum; and (g) comparing the mass spectrum acquired with a reference data set to determine at least one characteristic of the microbial sample.