mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an electro-mechanical microsystem including movable mechanical parts, said method including a phase of releasing at least one movable mechanical part, the releasing phase including the following steps: formation of at least one porous zone in a first wafer of a semiconductor material; formation of at least a pattern of a material suitable for making at least one movable mechanical part on a front face of the first wafer and at least a partial encapsulation of the pattern in a sacrificial layer; release of the movable mechanical part through the rear face of the first wafer throughout the porous zone, using a solvent of the sacrificial layer, characterized in that prior to releasing the movable mechanical part: a transfer by bonding the front face of the first wafer onto a second wafer; a thinning from the rear face of the first wafer until the porous zone is detected, are executed. formation of at least one porous zone in a first wafer of a semiconductor material; formation of at least a pattern of a material suitable for making at least one movable mechanical part on a front face of the first wafer and at least a partial encapsulation of the pattern in a sacrificial layer; release of the movable mechanical part through the rear face of the first wafer throughout the porous zone, using a solvent of the sacrificial layer, characterized in that prior to releasing the movable mechanical part: a transfer by bonding the front face of the first wafer onto a second wafer; a thinning from the rear face of the first wafer until the porous zone is detected, are executed. a transfer by bonding the front face of the first wafer onto a second wafer; a thinning from the rear face of the first wafer until the porous zone is detected, are executed.
Light duty vehicle, comprising: - a vehicle frame, comprising a pair of longitudinal beams connected to each other by a plurality of cross-members, - a cabin frame, comprising a pair of longitudinal beams rigidly connected to the front ends of the longitudinal beams of the vehicle frame, - at least one supporting structure for auxiliary units such as gaseous fuel tanks or electric batteries, carried by the vehicle frame, wherein - said supporting structure for supporting the auxiliary units comprises an auxiliary frame which extends between the longitudinal beams of the vehicle frame and has at least two connection plates arranged in vertical planes parallel to the longitudinal direction of the vehicle, - said connection plates of the auxiliary frame are in contact with mutually facing inner lateral walls of said longitudinal beams of the vehicle frame and are rigidly connected to said longitudinal beams of the vehicle frame, so that said auxiliary frame fulfills a structural function equivalent to the structural function of one or more of said cross-members at an area of the vehicle frame where said cross-members are not provided or are omitted for leaving space for the auxiliary frame, and are therefore replaced by the latter, said vehicle being characterized in that said end plates of the auxiliary frame are provided with flanges which project from said connection plates and constitute abutment elements in engagement against lower walls of the two longitudinal beams of the vehicle frame, and in that the auxiliary frame has a quadrangular configuration including two longitudinal arms and two transverse arms rigidly connected to each other and further comprising at least one cross-member which connects the longitudinal arms to each other and which has its ends carrying said connection plates arranged in vertical planes parallel to the longitudinal direction of the vehicle frame. - a vehicle frame, comprising a pair of longitudinal beams connected to each other by a plurality of cross-members, - a cabin frame, comprising a pair of longitudinal beams rigidly connected to the front ends of the longitudinal beams of the vehicle frame, - at least one supporting structure for auxiliary units such as gaseous fuel tanks or electric batteries, carried by the vehicle frame, wherein - said supporting structure for supporting the auxiliary units comprises an auxiliary frame which extends between the longitudinal beams of the vehicle frame and has at least two connection plates arranged in vertical planes parallel to the longitudinal direction of the vehicle, - said connection plates of the auxiliary frame are in contact with mutually facing inner lateral walls of said longitudinal beams of the vehicle frame and are rigidly connected to said longitudinal beams of the vehicle frame,
A computer-implemented method for identifying one or more network routes, the method comprising: transmitting, by a first network node, a first query to a network controller, the first query identifying a destination node for a traffic flow routed by the first network node, and wherein the first query is characterized to cause the network controller to perform operations comprising: identifying at least one egress node between the first network node and the destination node; transmitting a second query to the at least one egress node to determine entropy information relative to the egress node, wherein the entropy information is based on a quality of connectivity between the egress node and the destination node; and transmitting the entropy information to the first network node in response to the first query. identifying at least one egress node between the first network node and the destination node; transmitting a second query to the at least one egress node to determine entropy information relative to the egress node, wherein the entropy information is based on a quality of connectivity between the egress node and the destination node; and transmitting the entropy information to the first network node in response to the first query.
A low beam headlamp assembly (110a, 110b), comprising: - a LED flat module including a plurality of flat reflectors forming a plurality of flat luminous segments configured to produce a composite flat beam pattern of a low-beam distribution when activated; - a kink module having a first light source (kink 1) and a second light source (kink2), the first light source (kink 1) providing a first kink having a maximum intensity hotspot (K 1) and the second light source (kink2) providing a second kink having luminous intensity distribution (K 2) wider than the first kink; - a digital micro-mirror device allowing a near-field road-writing segment to be projected, said DMD near-field road -writing segment being located about a central vertical position of the low-beam distribution; - a digital micro-mirror device allowing a far-field road-writing segment to be projected, said DMD far-field road-writing segment being located above the DMD near-field road-writing segment of the low-beam distribution; and - circuitry configured to inactivate one or more of the flat luminous segments located within the DMD near-field road-writing segment of the low-beam distribution and inactivate the first light source (kink 1) when the DMD near-field road-writing segment and the DMD far-field road-writing segment are activated. - a LED flat module including a plurality of flat reflectors forming a plurality of flat luminous segments configured to produce a composite flat beam pattern of a low-beam distribution when activated; - a kink module having a first light source (kink 1) and a second light source (kink2), the first light source (kink 1) providing a first kink having a maximum intensity hotspot (K 1) and the second light source (kink2) providing a second kink having luminous intensity distribution (K 2) wider than the first kink; - a digital micro-mirror device allowing a near-field road-writing segment to be projected, said DMD near-field road -writing segment being located about a central vertical position of the low-beam distribution; - a digital micro-mirror device allowing a far-field road-writing segment to be projected, said DMD far-field road-writing segment being located above the DMD near-field road-writing segment of the low-beam distribution; and - circuitry configured to inactivate one or more of the flat luminous segments located within the DMD near-field road-writing segment of the low-beam distribution and inactivate the first light source (kink 1) when the DMD near-field road-writing segment and the DMD far-field road-writing segment are activated.
A system for controlling a rotary milking parlor arrangement, which comprises a rotating platform with a plurality of stalls each of which is configured to house a respective animal during milking, the system comprising: at least one drive unit (241, 242, 243, 244, 245) configured to cause the rotating platform to move in at least a first direction (RF, RB) of rotation around a rotation point, and a control unit configured to control the operation of the at least one drive unit (241, 242, 243, 244, 245), wherein each of the at least one drive unit comprises first and second drive motors (341, 342) arranged to engage a drive rail of the rotating platform and act on a respective side of the drive rail so as to cause the rotating platform to perform said movement, characterized in that each of said first and second drive motors (341, 342) is configured to produce a respective pace signal (p11, p12; p21, p22; p31, p32; p41, p42; p51, p52) indicating a rotational speed of the drive motor in question, and the control unit is further configured to: receive the pace signals (p11, p12; p21, p22; p31, p32; p41, p42; p51, p52) from each of said first and second drive motors (341, 342) in each of said at least one drive unit (241, 242, 243, 244, 245), compare the pace signal from the first drive motor with the pace signal from the second drive motor from each of said at least one drive unit (241, 242, 243, 244, 245) to establish a respective difference in the rotational speeds in each of said at least one drive unit, and if the difference exceeds a threshold value trigger an alarm. at least one drive unit (241, 242, 243, 244, 245) configured to cause the rotating platform to move in at least a first direction (RF, RB) of rotation around a rotation point, and a control unit configured to control the operation of the at least one drive unit (241, 242, 243, 244, 245), wherein each of the at least one drive unit comprises first and second drive motors (341, 342) arranged to engage a drive rail of the rotating platform and act on a respective side of the drive rail so as to cause the rotating platform to perform said movement, characterized in that each of said first and second drive motors (341, 342) is configured to produce a respective pace signal (p11, p12; p21, p22; p31, p32; p41, p42; p51, p52) indicating a rotational speed of the drive motor in question, and the control unit is further configured to: receive the pace signals (p11, p12; p21, p22; p31, p32; p41, p42; p51, p52) from each of said first and second drive motors (341, 342) in each of said at least one drive unit (241, 242, 243, 244, 245), compare the pace signal from the first drive motor with the pace signal from the second drive motor from each of said at least one drive unit (241, 242, 243, 244, 245) to establish a respective difference in the rotational speeds in each of said at least one drive unit, and if the difference exceeds a threshold value trigger an alarm.
A massage control system for a vehicle, comprising; an input for receiving an instruction for control of a massage parameter to a massaging element (16, 18, 20) of the vehicle; characterized in that it further comprises: a monitoring module arranged to monitor the instruction received by the input over time to determine a massage usage trend; and a control module arranged to receive the massage usage trend and output a massage parameter demand to the massaging element (16, 18, 20) based on the massage usage trend. a monitoring module arranged to monitor the instruction received by the input over time to determine a massage usage trend; and a control module arranged to receive the massage usage trend and output a massage parameter demand to the massaging element (16, 18, 20) based on the massage usage trend.
A method for forming a magnetoelectronic device comprising: forming a dielectric material surrounding a magnetic bit, the magnetic bit comprising two magnetic regions separated by a spacer layer; etching the dielectric material to define an opening over the magnetic bit without exposing the magnetic bit, the opening defining an elongated channel having a sidewall, a bottom near the magnetic bit, and first and second ends (182, 184), including the step of: tapering the sidewall of the opening at the first and second ends; depositing a blanket layer of cladding material over the dielectric material, including over the sidewall; removing by a sputtering process the blanket layer in the bottom of the opening and the dielectric material over the magnetic bit to expose the magnetic bit; and forming a conductive material within the opening to form a bit line having a first tapered end within the first end of the opening and a second tapered end within the second end of the opening. forming a dielectric material surrounding a magnetic bit, the magnetic bit comprising two magnetic regions separated by a spacer layer; etching the dielectric material to define an opening over the magnetic bit without exposing the magnetic bit, the opening defining an elongated channel having a sidewall, a bottom near the magnetic bit, and first and second ends (182, 184), including the step of: tapering the sidewall of the opening at the first and second ends; depositing a blanket layer of cladding material over the dielectric material, including over the sidewall; removing by a sputtering process the blanket layer in the bottom of the opening and the dielectric material over the magnetic bit to expose the magnetic bit; and forming a conductive material within the opening to form a bit line having a first tapered end within the first end of the opening and a second tapered end within the second end of the opening. tapering the sidewall of the opening at the first and second ends; depositing a blanket layer of cladding material over the dielectric material, including over the sidewall; removing by a sputtering process the blanket layer in the bottom of the opening and the dielectric material over the magnetic bit to expose the magnetic bit; and forming a conductive material within the opening to form a bit line having a first tapered end within the first end of the opening and a second tapered end within the second end of the opening.
An atomizer, comprising: a liquid reservoir having a liquid storage cavity for receiving atomizing liquid, wherein the liquid reservoir has an opening end, and the opening end defines an opening in communication with the liquid storage cavity; a heating assembly comprising a liquid conducting body and a heating element, wherein the liquid conducting body is located on the opening end, the conducting body has a liquid absorbing surface facing an inside of the liquid storage cavity and an atomizing surface located outside of the liquid storage cavity, the heating element is formed on the atomizing surface, the liquid conducting body is configured to conduct the atomizing liquid in the liquid storage cavity to the atomizing surface, and the heating element is configured to atomize the atomizing liquid conducted to the atomizing surface; the liquid absorbing surface defines a recess in communication with the liquid storage cavity, the recess is configured for being filled with the atomizing liquid flowed from the liquid storage cavity, and an minimum conduction distance of the atomizing liquid from a bottom wall of the recess to the atomizing surface is less than a minimum conduction distance of the atomizing liquid from the liquid absorbing surface to the atomizing surface. a liquid reservoir having a liquid storage cavity for receiving atomizing liquid, wherein the liquid reservoir has an opening end, and the opening end defines an opening in communication with the liquid storage cavity; a heating assembly comprising a liquid conducting body and a heating element, wherein the liquid conducting body is located on the opening end, the conducting body has a liquid absorbing surface facing an inside of the liquid storage cavity and an atomizing surface located outside of the liquid storage cavity, the heating element is formed on the atomizing surface, the liquid conducting body is configured to conduct the atomizing liquid in the liquid storage cavity to the atomizing surface, and the heating element is configured to atomize the atomizing liquid conducted to the atomizing surface; the liquid absorbing surface defines a recess in communication with the liquid storage cavity, the recess is configured for being filled with the atomizing liquid flowed from the liquid storage cavity, and an minimum conduction distance of the atomizing liquid from a bottom wall of the recess to the atomizing surface is less than a minimum conduction distance of the atomizing liquid from the liquid absorbing surface to the atomizing surface.
A wet spinning apparatus for spinning by coagulation of a spinning raw liquid to form coagulated filaments, the apparatus comprising: a spinning bath, storing a coagulation liquid (c), having a coagulation bath portion for coagulating the spinning raw liquid and a filament running portion for allowing the coagulated filaments to run therein, the coagulation bath portion having a cross sectional area thereof gradually being reduced from one end to the other end, the filament running portion having a cross sectional area thereof gradually being enlarged from one end to the other end, a spinneret being provided at a surface for discharging of a nozzle, the spinneret being arranged in the coagulation bath portion. a spinning bath, storing a coagulation liquid (c), having a coagulation bath portion for coagulating the spinning raw liquid and a filament running portion for allowing the coagulated filaments to run therein, the coagulation bath portion having a cross sectional area thereof gradually being reduced from one end to the other end, the filament running portion having a cross sectional area thereof gradually being enlarged from one end to the other end, a spinneret being provided at a surface for discharging of a nozzle, the spinneret being arranged in the coagulation bath portion.
A chimeric polynucleotide encoding a CyaA-derived protein wherein said CyaA-derived protein comprises or consists of: 1) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO: 2, the sequence of said fragment beginning with the first residue of SEQ ID NO:2 and ending with a residue located from position 183 to position 227 of SEQ ID NO:2, fused to 2) A polynucleotide encoding a heterologous polypeptide containing an E7 antigen of HPV or an antigenic fragment thereof wherein said heterologous polypeptide has a negative electrostatic charge fused to 3) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO: 2, the sequence of said fragment beginning with a residue located from position 321 to position 387 of SEQ ID NO:2 and ending with the last residue of SEQ ID NO:2. 1) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO: 2, the sequence of said fragment beginning with the first residue of SEQ ID NO:2 and ending with a residue located from position 183 to position 227 of SEQ ID NO:2, fused to 2) A polynucleotide encoding a heterologous polypeptide containing an E7 antigen of HPV or an antigenic fragment thereof wherein said heterologous polypeptide has a negative electrostatic charge fused to 3) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO: 2, the sequence of said fragment beginning with a residue located from position 321 to position 387 of SEQ ID NO:2 and ending with the last residue of SEQ ID NO:2.
System comprising a fire protection device for use in a wall, floor or ceiling feed-through and a drain component arranged in the wall, floor or ceiling feed-through, wherein the fire protection device includes an elastically deformable base body and intumescent material, wherein the intumescent material is arranged on the base body and wherein the base body has a first sealing lip, wherein the base body has an outer side and an inner side, wherein the outer side faces the wall, the floor or the ceiling, wherein the inner side is directed away from the wall, the floor or the ceiling, wherein the intumescent material is arranged on the outer side, wherein the base body is integral and/or single-piece in form, characterised in that the fire protection device is arranged in an elastically deformed state of the base body between the drain component and the wall, the floor or the ceiling.
Reversibly couplable or crosslinkable formulation, characterized in that the formulation is crosslinkable by means of an aza-Diels-Alder reaction, in that the formulation comprises a component A which has at least two dienophilic double bonds, in that the formulation comprises a component B which has at least two diene functionalities, wherein the diene functionalities are bishydrazones or bis-Schiff bases.
Dish rack, in particular a cutlery drawer, for a dishwasher, comprising a supporting frame mounted such that it can be pulled out of a washing chamber of a dishwasher, and comprising a cutlery insert for receiving washware that is arranged movably on the supporting frame, the cutlery insert being retained by the supporting frame so as to be both horizontally and vertically movable transversely to the pull-out direction of the cutlery drawer, and comprising a retaining element on its longitudinal side that extends in the pull-out direction and faces the supporting frame, which element detachably interacts with an abutment provided by the supporting frame, the abutment being designed to have two steps in order to support the retaining element in a first and a second vertical position, and provides a retaining web that interacts with the retaining element and a retaining tab that interacts with the retaining element, characterised in that the retaining element engages under the retaining web of the abutment in at least one position.