mhurhangee/patent-ind-claim-en huggingface dataset:
Connecting assembly for supplying electric energy from a ground charging station to an electric vehicle , the connecting assembly comprising at least: - a first connector interface , configured to be located at the bottom of said electric vehicle , with a first electric plug arranged with an actuating device to operate an up and down movement of the first electric plug between a first "storage" position and a second "plugging" position, in the first "storage" position, the first electric plug being in a recess which forms a lodging for the first electric plug and which is configured to be situated inside the bottom face of the electric vehicle and in the second "plugging" position, the first electric plug being configured to be outside said bottom face of said electric vehicle , - a sliding surface (S) configured to be positioned at the bottom surface of said electric vehicle , the "plugging" position of the first connector interface being located at the end of the sliding surface (S), - a second connector interface with a second electric plug , carried by a movable connecting head of the ground charging station , said head having an upper surface (U) arranged to cooperate with the sliding surface (S) configured to be at the bottom of the electric vehicle and to be guided by and/or in contact with said sliding surface in order to plug said second connector interface in said first connector interface . - a first connector interface , configured to be located at the bottom of said electric vehicle , with a first electric plug arranged with an actuating device to operate an up and down movement of the first electric plug between a first "storage" position and a second "plugging" position, in the first "storage" position, the first electric plug being in a recess which forms a lodging for the first electric plug and which is configured to be situated inside the bottom face of the electric vehicle and in the second "plugging" position, the first electric plug being configured to be outside said bottom face of said electric vehicle , - a sliding surface (S) configured to be positioned at the bottom surface of said electric vehicle , the "plugging" position of the first connector interface being located at the end of the sliding surface (S), - a second connector interface with a second electric plug , carried by a movable connecting head of the ground charging station , said head having an upper surface (U) arranged to cooperate with the sliding surface (S) configured to be at the bottom of the electric vehicle and to be guided by and/or in contact with said sliding surface in order to plug said second connector interface in said first connector interface .
An electronic device comprising: a case ; an antenna supported by the case ; a display module disposed within the case ; a conductive chassis disposed within the case , the conductive chassis structurally supporting the display module ; an electronics module disposed within the case , wherein the conductive chassis is positioned between the antenna and the electronics module to shield the antenna from electromagnetic noise generated by the electronics module; characterized by an interconnect that is configured to electrically connect the conductive chassis and a conductive component of the case , the interconnect extending around the electronics module and being disposed along a perimeter of the conductive chassis to surround the electronics module and further shield the antenna from the electromagnetic noise generated by the electronics module. a case ; an antenna supported by the case ; a display module disposed within the case ; a conductive chassis disposed within the case , the conductive chassis structurally supporting the display module ; an electronics module disposed within the case , wherein the conductive chassis is positioned between the antenna and the electronics module to shield the antenna from electromagnetic noise generated by the electronics module; characterized by an interconnect that is configured to electrically connect the conductive chassis and a conductive component of the case , the interconnect extending around the electronics module and being disposed along a perimeter of the conductive chassis to surround the electronics module and further shield the antenna from the electromagnetic noise generated by the electronics module.
Fastening device for a blind, having a carrier which is intended to be directly or indirectly fastened to a building part, wherein the carrier takes the form of a U- or C-shaped carrier bracket and comprises a carrier plate and two carrier arms which project from the carrier plate ; and a holding bracket which is arranged, at least in certain regions, below the carrier , wherein the holding bracket is intended to be connected to a blind, directly or via a blind housing , and to carry said blind, wherein the holding bracket is supported on at least two elastic, axially resilient damping elements , and the respective damping element is arranged between the carrier and the holding bracket , wherein the respective damping element exerts an axial supporting force in the direction of the carrier , wherein, with the blind not mounted, the holding bracket is held by the axial supporting force of the respective damping element - directly or via an intermediate element - under a preloading force on the carrier , and the preloading force is less than a weight force exerted by the holding bracket including blind mounted thereon, characterized in that the respective damping element is held on the associated carrier arm (17/18) without the use of additional fastening means.
CAN repeater for a communication system having at least one network for forwarding CAN data telegrams between a first subscriber (A) and a second subscriber (B), either within the network or for connecting two similar networks , wherein the CAN repeater comprises two CAN transceivers for physically coupling the CAN repeater to at least one CAN network , wherein the logic unit is configured to recognize CAN data telegrams, wherein the repeater is configured to forward CAN data telegrams at the physical layer of the ISO-OSI reference model, and having at least two transceivers for physically coupling the CAN repeater to the at least one network , wherein the repeater comprises a logic unit which is configured to recognize the defined structure of a CAN data telegram to be forwarded from the first subscriber (A) to the second subscriber (B), to manipulate data content within the CAN data telegram from at least one defined point in time and to transmit the manipulated data content to the first subscriber (A) and/or the second subscriber (B).
An intraluminal imaging device , comprising: a flexible elongate member defining a longitudinal axis and configured to be inserted into a body lumen within a patient; an imaging assembly disposed at a distal portion of the flexible elongate member, the imaging assembly comprising: a plurality of ultrasound transducer elements disposed around the longitudinal axis; and a first integrated circuit controller in communication with the plurality of ultrasound transducer elements, characterised in that the first integrated circuit controller comprises an annular shape; wherein an outer diameter of the first integrated circuit controller includes a plurality of outer bond pads , wherein each of the plurality of the outer bond pads is in direct contact with one respective transducer element of the plurality of ultrasound transducer elements. a flexible elongate member defining a longitudinal axis and configured to be inserted into a body lumen within a patient; an imaging assembly disposed at a distal portion of the flexible elongate member, the imaging assembly comprising: a plurality of ultrasound transducer elements disposed around the longitudinal axis; and a first integrated circuit controller in communication with the plurality of ultrasound transducer elements, characterised in that the first integrated circuit controller comprises an annular shape; a plurality of ultrasound transducer elements disposed around the longitudinal axis; and a first integrated circuit controller in communication with the plurality of ultrasound transducer elements, characterised in that the first integrated circuit controller comprises an annular shape; wherein an outer diameter of the first integrated circuit controller includes a plurality of outer bond pads , wherein each of the plurality of the outer bond pads is in direct contact with one respective transducer element of the plurality of ultrasound transducer elements.
A multi-layer sliding member comprising: a backing plate; a porous sintered metal layer integrally bonded to one surface of the backing plate; and a coating layer filling pores of the porous sintered metal layer, coating on a surface of the porous sintered metal layer, and formed from a synthetic resin composition, wherein the synthetic resin composition contains a tetrafluoroethylene resin as a main component, the multi-layer sliding member is characterized in that the synthetic resin further contains, as additives, 5 to 30% by mass of a thermotropic liquid crystal polymer, 5 to 12% by mass of a polyarylketone resin, 5 to 12% by mass of a melt moldable fluororesin, and 1 to 5% by mass of a polyimide resin. a backing plate; a porous sintered metal layer integrally bonded to one surface of the backing plate; and a coating layer filling pores of the porous sintered metal layer, coating on a surface of the porous sintered metal layer, and formed from a synthetic resin composition, wherein the synthetic resin composition contains a tetrafluoroethylene resin as a main component, the multi-layer sliding member is characterized in that the synthetic resin further contains, as additives, 5 to 30% by mass of a thermotropic liquid crystal polymer, 5 to 12% by mass of a polyarylketone resin, 5 to 12% by mass of a melt moldable fluororesin, and 1 to 5% by mass of a polyimide resin.
An air cleaning system for an oven comprising a cooking chamber , the air cleaning system comprising: - a catalytic assembly configured to clean air; and - a preheater configured to receive hot, cleaned air from the catalytic assembly in an outlet duct to transfer heat to fresh air in an inlet duct to preheat the fresh air to heated input air, characterized in that the inlet duct and the outlet duct extend substantially parallel to each other and share a common wall , and wherein the common wall is a heat transfer surface to transfer the heat from the cleaned air to the fresh air between the outlet duct and the inlet duct , respectively, and that the cleaned air and the fresh air move in substantially a same direction during heat transfer across the common wall through the outlet duct and the inlet duct , respectively. - a catalytic assembly configured to clean air; and - a preheater configured to receive hot, cleaned air from the catalytic assembly in an outlet duct to transfer heat to fresh air in an inlet duct to preheat the fresh air to heated input air,
A surgical system comprising: a first rod member ; a second rod member ; and a transverse connector operably attached to the first rod member and the second rod member , wherein the transverse connector comprises a cross rod , a first sub-assembly for gripping onto the first rod member 10 and a second sub-assembly for gripping onto the second rod member , wherein the first rod member is bottom loaded onto the first sub-assembly and the second rod member is bottom loaded onto the second sub-assembly , wherein the first sub-assembly comprises a first inner clamp and a first outer clamp and a first nut that extends around the upper threaded portion of the first inner clamp , wherein a lower surface of the first nut includes a star grind; wherein the first inner clamp comprises an upper threaded portion and a lower portion 111b comprising a first pair of fingers , wherein a slit separates the first pair of fingers and extends into the upper threaded portion of the first inner clamp and wherein the star grind is so configured that when the first nut is fully tightened, the star grind provides resistance against an upper surface of the cross rod . a first rod member ; a second rod member ; and a transverse connector operably attached to the first rod member and the second rod member , wherein the transverse connector comprises a cross rod , a first sub-assembly for gripping onto the first rod member 10 and a second sub-assembly for gripping onto the second rod member , wherein the first rod member is bottom loaded onto the first sub-assembly and the second rod member is bottom loaded onto the second sub-assembly , wherein the first sub-assembly comprises a first inner clamp and a first outer clamp and a first nut that extends around the upper threaded portion of the first inner clamp , wherein a lower surface of the first nut includes a star grind; wherein the first inner clamp comprises an upper threaded portion and a lower portion 111b comprising a first pair of fingers , wherein a slit separates the first pair of fingers and extends into the upper threaded portion of the first inner clamp and wherein the star grind is so configured that when the first nut is fully tightened, the star grind provides resistance against an upper surface of the cross rod .
Mixture characterized in that it comprises at least three poly(alkylene phosphates) corresponding to the formula (I) in which R 1 , R 2 , R 3 and R 4 are a 2-methylpropyl moiety, A is a moiety of the formula -CHR 5 -CHR 6 -(O-CHR 7 -CHR 8 ) a -, in which a is an integer from 1 to 5 and R 5 , R 6 , R 7 and R 8 are mutually independently hydrogen or methyl, and n is an integer from 0 to 100, preferably from 0 to 50 and particularly preferably from 0 to 30, with the proviso that at least three of the poly(alkylene phosphates) of the formula (I) present in the mixture differ from one another at least in the number n of the repeating units, and the weight-average value of the number of the repeating units n in the poly(alkylene phosphates) of the formula (I) is in the range from 1.10 to 4.00. R 1 , R 2 , R 3 and R 4 are a 2-methylpropyl moiety, A is a moiety of the formula -CHR 5 -CHR 6 -(O-CHR 7 -CHR 8 ) a -, in which a is an integer from 1 to 5 and R 5 , R 6 , R 7 and R 8 are mutually independently hydrogen or methyl, and a is an integer from 1 to 5 and R 5 , R 6 , R 7 and R 8 are mutually independently hydrogen or methyl, and n is an integer from 0 to 100, preferably from 0 to 50 and particularly preferably from 0 to 30,
A surgical instrument for use in a surgical procedure, said surgical instrument comprising: an interchangeable working assembly , comprising: an end effector ; and a working assembly controller ; a power assembly separably couplable to said working assembly , and comprising: a power source ; and a power assembly controller , characterized in that said working assembly controller is configured to generate one or more signals to communicate with said power assembly controller by modulating power transmission from said power source to said working assembly , whereby the power transmitted from said power source to said working assembly forms discrete patterns or waveforms that represent said one or more signals, and said power assembly controller is configured to monitor the power transmission from said power assembly to said interchangeable working assembly for the one or more signals represented by said discrete patterns or waveforms. an interchangeable working assembly , comprising: an end effector ; and a working assembly controller ; an end effector ; and a working assembly controller ; a power assembly separably couplable to said working assembly , and comprising: a power source ; and a power assembly controller , a power source ; and a power assembly controller , characterized in that said working assembly controller is configured to generate one or more signals to communicate with said power assembly controller by modulating power transmission from said power source to said working assembly , whereby the power transmitted from said power source to said working assembly forms discrete patterns or waveforms that represent said one or more signals, and said power assembly controller is configured to monitor the power transmission from said power assembly to said interchangeable working assembly for the one or more signals represented by said discrete patterns or waveforms.
A storage assembly for a shaving razor system , the assembly comprising: a case comprising a top portion and a bottom portion ; and an insert , wherein the insert comprises one or more cavities (38-1, 38-2, 238-1, 238-2, 338-1, 338-2) configured to receive one or more components of the shaving razor system and wherein the bottom portion of the case defines a compartment configured to removably receive the insert within the bottom portion , characterized in that the insert comprises a material having a Shore A hardness of between 40 and 70. a case comprising a top portion and a bottom portion ; and an insert , wherein the insert comprises one or more cavities (38-1, 38-2, 238-1, 238-2, 338-1, 338-2) configured to receive one or more components of the shaving razor system and wherein the bottom portion of the case defines a compartment configured to removably receive the insert within the bottom portion , characterized in that the insert comprises a material having a Shore A hardness of between 40 and 70.
A method for determining a volume flow and/or mass flow of a medium (M) flowing in a pipe , wherein a density and/or a viscosity of the fluid (F) is/are determined using an MEMS sensor chip , wherein the medium (M) flowing in the pipe flows through at least part of a measurement channel of the MEMS sensor chip for determining the density and/or the viscosity of the fluid (F), wherein an orifice plate is inserted into the pipe in such a way that the flow passes through the orifice plate and the measurement channel of the MEMS sensor chip in parallel and a pressure drop (| p2-p1 |) is generated by the orifice plate inserted into the pipe and the measurement channel of the MEMS sensor chip , said pipe having the medium (M) flow through at least part of it, wherein the orifice plate and the measurement channel are coordinated in such a way that a flow ratio from the medium (M) flowing through the measurement channel to the medium (M) flowing through the orifice plate is set to less than 1:20, wherein the pressure drop is registered, characterized in that the volume flow and/or mass flow of the medium (M) is/are determined independently of the medium using the registered pressure drop (| p2-p1 |) and the density and/or viscosity determined by the MEMS sensor chip . wherein an orifice plate is inserted into the pipe in such a way that the flow passes through the orifice plate and the measurement channel of the MEMS sensor chip in parallel and a pressure drop (| p2-p1 |) is generated by the orifice plate inserted into the pipe and the measurement channel of the MEMS sensor chip , said pipe having the medium (M) flow through at least part of it, wherein the orifice plate and the measurement channel are coordinated in such a way that a flow ratio from the medium (M) flowing through the measurement channel to the medium (M) flowing through the orifice plate is set to less than 1:20, wherein the pressure drop is registered, characterized in that the volume flow and/or mass flow of the medium (M) is/are determined independently of the medium using the registered pressure drop (| p2-p1 |) and the density and/or viscosity determined by the MEMS sensor chip .
A method for supporting a vehicle driver of a rail vehicle , having the following steps: - acquisition of operating parameter data (A); - acquisition of current status parameter data (B); - evaluation of the vehicle driver's driving style to date based on the operating parameter data (A) acquired and on the current status parameter data (B) acquired; - generation of feedback (F) on the vehicle driver's driving style to date; and - display of the feedback (F) for the vehicle driver (F); characterised in that the evaluation step has the following steps: - determination of the vehicle driver's driving style to date from the vehicle driver's driving to date; - comparison of the vehicle driver's driving to date with earlier journeys made by the vehicle driver and/or with earlier journeys made by other vehicle drivers; and - comparison of the vehicle driver's driving to date with driving guidelines; and feedback (F) on the vehicle driver's driving style to date that contains at least one absolute value and at least one comparative value relative to the vehicle driver's driving to date for at least one target value to be optimised and at least one forecast of the vehicle driver's further driving. - acquisition of operating parameter data (A); - acquisition of current status parameter data (B); - evaluation of the vehicle driver's driving style to date based on the operating parameter data (A) acquired and on the current status parameter data (B) acquired; - generation of feedback (F) on the vehicle driver's driving style to date; and - display of the feedback (F) for the vehicle driver (F); - determination of the vehicle driver's driving style to date from the vehicle driver's driving to date; - comparison of the vehicle driver's driving to date with earlier journeys made by the vehicle driver and/or with earlier journeys made by other vehicle drivers; and - comparison of the vehicle driver's driving to date with driving guidelines; and
A process to prepare polycarbamate comprising: adding urea to a polyol in the presence of at least one catalyst selected from the group consisting of: Ti(IV) ethoxide, Ti(IV) isopropoxide , Ti(IV) butoxide, Ti(IV) bis(triethanolamine) diisopropoxide, Ti(IV) acetylacetonate, Ti(IV) 2-ethylhexyloxide, tetrabutyl titanate, Ti(IV) butoxy isopropoxy, Ti(IV) tetrakis(diethylamino), Ti(IV) oxide bis(acetylacetonate), Ti(IV) cresylate, Ti(IV) oxyacetylacetonate, Ti(IV) bis(acetylacetonate)dichloride, Ti(IV) diisopropoxide bis(acetylacetonate), chlorotriisopropoxytitanium(IV), Zirconium (IV) acetylacetonate, Zr(IV) hexafluoroacetyl acetonate, Zr(IV) 2-ethylhexanoate, Zr(IV) Tetrakis (2,2,6,6- tetramethyl- 3,5, heptanedionate), Zr(IV) n-butoxide, Zr(IV) 2-methyl-2-butoxide, Zirconium(IV) propoxide, Zr(IV) octoate, Zr(IV) tetrakis (diethylamino), Zr(IV) 2-methyl-2-butoxide, Zr(IV) diisopropoxide bis(2,2,6,6-tetramethyl-3,5-heptanedionate, Zr(IV) tetrakis(trifluoromethanesulfonate), ZrOCl 2 , Zr(OH) 4 , Zr(IV) carboxyethyl acrylate, Hf(IV) butoxide, Hf(IV) isopropoxide, Hf(IV) trifluoromethanesulfonate, Hf(IV) tert-butoxide, Hf(IV) tetrakis(diethylamino), Hf(IV) 1,1,1-trifluoro-2,4-pentanedionate, Hf(IV) trifluoroacetylacetonate, Hf(IV) acetylacetonate, Hf(IV) iso-propoxide monoisopropylate, Hf(IV) tetrakis(diethylamino), Hf(IV) bromide, Hf(IV) chloride, Hf(IV) oxide, Ge(IV) chloride, Ge(IV) bromide, Ge(IV) oxide, Ge(IV) sulfide, Ge(IV) isopropoxide, Ge(IV) butoxide, Ge(IV) ethoxide, tributylgermanium chloride and any combination thereof.
A composition comprising a bacterial strain of the species Enterococcus faecium having a 16s rRNA sequence that is at least 99% identical to SEQ ID NO: 2, for use in a method of treating or preventing an inflammatory or autoimmune disease, wherein the composition does not comprise a bacterial strain of the species Bacillus subtilis, and wherein the amount of the bacterial strain is from about 1 × 10 6 to about 1 × 10 11 colony forming units per gram with respect to a weight of the composition.