mhurhangee/ep-ind-claims huggingface dataset:
A polyolefin resin foam sheet having a plurality of cells which is formed by foaming a polyolefin resin, wherein the polyolefin resin foam sheet has a Machine Direction and a Transverse Direction, and wherein, in the polyolefin resin foam sheet, the average cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 150 μm or less, and the maximum cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 500 μm or less; and a ratio of strength at break, as measured according to the definition in the description, in the TD direction to the average cell size in the MD direction, [TD strength at break/MD average cell size], and a ratio of strength at break, as measured according to the definition in the description, in the MD direction to the average cell size in the TD direction, [MD strength at break/TD average cell size], are both 90 kPa/μm or more. wherein the polyolefin resin foam sheet has a Machine Direction and a Transverse Direction, and wherein, in the polyolefin resin foam sheet, the average cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 150 μm or less, and the maximum cell sizes, as measured according to the definition in the description, in the MD direction and the TD direction are 500 μm or less; and a ratio of strength at break, as measured according to the definition in the description, in the TD direction to the average cell size in the MD direction, [TD strength at break/MD average cell size], and a ratio of strength at break, as measured according to the definition in the description, in the MD direction to the average cell size in the TD direction, [MD strength at break/TD average cell size], are both 90 kPa/μm or more.
A dental implant system, comprising: a dental implant (10, 10') having a generally cylindrical body and a central axis (11, 11'), the dental implant (10, 10') having a distal end (12, 12') for anchoring in a patient's bone and a proximal end (14, 14') opposing the distal end (12, 12'), the proximal end (14, 14') including a lateralized surface (16, 16') and an abutment-engaging region, the abutment-engaging region being surrounded by the lateralized surface (16, 16'), the lateralized surface (16, 16') defining a soft-tissue attachment interface and being roughened to promote soft-tissue attachment, the lateralized surface (16, 16') being disposed at a negative slope from the perimeter of the cylindrical body toward the distal end (12, 12') relative to the central axis (11, 11'); and an abutment (100, 100') having an upper portion for supporting a tooth-like prosthesis and a lower portion for engaging the abutment-engaging region of the dental implant (10, 10'), the lower portion having a diameter that is smaller than a diameter of the implant (10, 10') at the proximal end (14, 14'), the lower portion including a first surface (116, 116') with a soft-tissue enhancing material, the first surface (116, 116') of the lower portion of the abutment (100, 100') and the lateralized surface (16, 16') of the dental implant (10, 10') defining a circumferentially extending recess (234, 234') having a V-shaped cross-section for receiving and attachment to the soft tissue. a dental implant (10, 10') having a generally cylindrical body and a central axis (11, 11'), the dental implant (10, 10') having a distal end (12, 12') for anchoring in a patient's bone and a proximal end (14, 14') opposing the distal end (12, 12'), the proximal end (14, 14') including a lateralized surface (16, 16') and an abutment-engaging region, the abutment-engaging region being surrounded by the lateralized surface (16, 16'), the lateralized surface (16, 16') defining a soft-tissue attachment interface and being roughened to promote soft-tissue attachment, the lateralized surface (16, 16') being disposed at a negative slope from the perimeter of the cylindrical body toward the distal end (12, 12') relative to the central axis (11, 11'); and an abutment (100, 100') having an upper portion for supporting a tooth-like prosthesis and a lower portion for engaging the abutment-engaging region of the dental implant (10, 10'), the lower portion having a diameter that is smaller than a diameter of the implant (10, 10') at the proximal end (14, 14'), the lower portion including a first surface (116, 116') with a soft-tissue enhancing material, the first surface (116, 116') of the lower portion of the abutment (100, 100') and the lateralized surface (16, 16') of the dental implant (10, 10') defining a circumferentially extending recess (234, 234') having a V-shaped cross-section for receiving and attachment to the soft tissue.
Method for address allocation for a plurality of meters (12a-f) for consumption measurement at a gateway which is designed for bidirectionally exchanging data with the plurality of meters (12a-f) via unique addresses, wherein one or more meters (12a-c; 12d-f) carry out time-based address allocation via a wired network each having a slave adapter (24 A, B), characterised in that - one or more slave adapters (24 A, B) are provided, each slave adapter being connected to a different wired network and each meter being associated with exactly one wired network and one slave adapter, - a master adapter is connected to the gateway via a further wired network and to the one or more slave adapters (24A,B) via a radio network for bidirectional data exchange, wherein the slave adapter (24A, B) has a predetermined filter function and reduces its data exchange with the master adapter based on the filter function, wherein the master adapter is adapted to receive the addresses from the one or more slave adapters (24 A, B) and to assign an unoccupied address of the gateway to each of the received addresses, - the gateway performs time-based address allocation for the assigned addresses of the master adapter via the further wired network with the master adapter, and - a transmitting meter sends a generated address to the slave adapter (24 A, B) and the slave adapter (24 A, B) receives that address and compares it with unoccupied addresses, wherein, if an unoccupied address has been received, receipt for the transmitting meter is acknowledged. - one or more slave adapters (24 A, B) are provided, each slave adapter being connected to a different wired network and each meter being associated with exactly one wired network and one slave adapter, - a master adapter is connected to the gateway via a further wired network and to the one or more slave adapters (24A,B) via a radio network for bidirectional data exchange, wherein the slave adapter (24A, B) has a predetermined filter function and reduces its data exchange with the master adapter based on the filter function, wherein the master adapter is adapted to receive the addresses from the one or more slave adapters (24 A, B) and to assign an unoccupied address of the gateway to each of the received addresses, - the gateway performs time-based address allocation for the assigned addresses of the master adapter via the further wired network with the master adapter, and - a transmitting meter sends a generated address to the slave adapter (24 A, B) and the slave adapter (24 A, B) receives that address and compares it with unoccupied addresses, wherein, if an unoccupied address has been received, receipt for the transmitting meter is acknowledged.
An assembly of a cylinder liner and an engine bore of an engine block for an internal combustion engine, the cylinder liner comprising: a cylindrical body configured to receive a piston assembly, the cylindrical body including a main body portion configured for selective engagement with the engine bore; and an upper flange configured to support the cylindrical body within the engine bore; wherein the surfaces of the cylinder liner and the engine bore cooperate to generally define an undulating cooling gallery adjacent the upper flange, the undulating cooling gallery defining a single cooling flow path extending the entire perimeter of the cylindrical body, characterized in that, the undulating cooling gallery defines in part a cooling flow path that undulates axially with respect to the main body portion. a cylindrical body configured to receive a piston assembly, the cylindrical body including a main body portion configured for selective engagement with the engine bore; and an upper flange configured to support the cylindrical body within the engine bore; wherein the surfaces of the cylinder liner and the engine bore cooperate to generally define an undulating cooling gallery adjacent the upper flange, the undulating cooling gallery defining a single cooling flow path extending the entire perimeter of the cylindrical body,
A pressure sensing system characterized by: a hot zone electronics module having a capacitive pressure sensor which comprises a variable capacitor (Cs) having a capacitance adapted to change as a function of applied pressure and a reference capacitor (Cr), and an oscillator that is adapted to provide an oscillating signal to the capacitive pressure sensor, the hot zone electronics module adapted to provide at least two DC sensor signals providing at least a first DC sensor signal related to capacitance of the variable capacitor (Cs) and a second DC sensor signal related to capacitance of the reference capacitor (Cr); a cool zone electronics module that is adapted to convert the at least two DC sensor signals into a pressure value and that provides a DC power signal; and a plurality of conductors that connect the hot zone electronics module to the cool zone electronics module and that are adapted to convey the DC power signal to the hot zone electronics module and to convey the at least two DC sensor signals to the cool zone electronics module, wherein the plurality of conductors comprise elongate conductors and the hot zone electronics module is located at a remote location relative to the cool zone electronics module. a hot zone electronics module having a capacitive pressure sensor which comprises a variable capacitor (Cs) having a capacitance adapted to change as a function of applied pressure and a reference capacitor (Cr), and an oscillator that is adapted to provide an oscillating signal to the capacitive pressure sensor, the hot zone electronics module adapted to provide at least two DC sensor signals providing at least a first DC sensor signal related to capacitance of the variable capacitor (Cs) and a second DC sensor signal related to capacitance of the reference capacitor (Cr); a cool zone electronics module that is adapted to convert the at least two DC sensor signals into a pressure value and that provides a DC power signal; and a plurality of conductors that connect the hot zone electronics module to the cool zone electronics module and that are adapted to convey the DC power signal to the hot zone electronics module and to convey the at least two DC sensor signals to the cool zone electronics module, wherein the plurality of conductors comprise elongate conductors and the hot zone electronics module is located at a remote location relative to the cool zone electronics module.
A loom comprising: a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft; a braking device that applies a brake to the main shaft connected to the driving shaft; and a housing-shaped side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, characterized in that the driving-force transmission mechanism includes a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame and connected to the driving motor, and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft, and the transmission mechanism connects the driving-force transmission shaft and the driving shaft at a position on a main shaft side in the width direction from a connection position between the driving shaft and the swing mechanism. a driving shaft to which a main shaft of the loom is connected and to which a swing shaft for driving a reed to swing is connected via a swing mechanism; a driving motor to which the driving shaft is connected via a driving-force transmission mechanism to rotationally drive the driving shaft; a braking device that applies a brake to the main shaft connected to the driving shaft; and a housing-shaped side frame that accommodates the driving shaft and the swing shaft in an orientation in which each axial direction of the driving shaft and the swing shaft matches with a width direction, characterized in that the driving-force transmission mechanism includes a driving-force transmission shaft that is provided so as to protrude from a side wall of the side frame while extending parallel to the driving shaft within a space of the side frame and connected to the driving motor, and a transmission mechanism that connects the driving-force transmission shaft and the driving shaft, and the transmission mechanism connects the driving-force transmission shaft and the driving shaft at a position on a main shaft side in the width direction from a connection position between the driving shaft and the swing mechanism.
Device for adjusting the tilt of a chair backrest, said device comprising a base frame of the chair, a backrest frame at least rotatably mounted to said base frame of the chair, and elastic means for returning said backrest and/or countering the rotation thereof, the elastic means having at least one point of application of the returning and/or the rotation countering force of said backrest, said backrest frame being constrained to said elastic means in correspondence to said at least one point of application, as well as to a preloading mechanism (7,8) for adjusting of said elastic means, wherein said preloading mechanism (7,8) comprises at least one first connecting rod hinged to at least one first crank and constrained to said elastic means in the point of application to move said point of application as a function of the position adopted by said at least one first connecting rod with respect to said base frame, said at least one first crank being hinged to said base frame to make rotate the hinge point of said at least one first connecting rod with respect to said base frame, characterized in that said device comprises adjusting means to adjust the position of said at least one first crank in at least two distinct stable positions corresponding to at least two distinct positions of said at least one point of application with respect to said base frame.
A method for synchronizing clocks in a network with a plurality of at least two nodes (Ki, Kn, i = 1,2,...,J, nEi), wherein at least two of these nodes (Ki, Kn) can communicate with one another and respectively comprise a local clock (LCi, LCn), wherein, - in a receiving node (Kn) of these nodes, from at least one transmitting other node (Ki, i≠n) of such nodes, a global time (gci, i≠n) of the transmitting node (Ki, i≠n) of the nodes, which global time is transmitted by this transmitting node (Ki, i≠n) of the nodes, is received, - depending on both the received global time (gci, i≠n) of the transmitting node (Ki, i≠n) and a local time (lcn) of the own local clock (LCn) of the receiving node (Kn), a global time (gcn) of this receiving node (Kn) is determined or estimated by a control unit, and - the determined or estimated global time (gcn) of the receiving node (Kn) is transmitted to the at least one transmitting node (Ki, i≠n), wherein, in the at least one transmitting node (Ki, i≠n) of the nodes, depending on both the received global time (gcn) of the receiving node (Kn) and a local time (lci) of the own local clock (LCi), a global time (gci) of this transmitting node (Ki, i≠n) is determined or estimated by a control unit, characterized in that, in the node (Kn), a deviation measure (vn) between the own global time (gcn) and the own local time (Icn) and/or between the own global time (gcn) and the global time or times (gci) received from the other node or from the other nodes is determined or estimated, wherein, in the determination or estimation of the global time (gcn), the node (Kn) uses a deviation measure (vi) of a received global time (gci) of another such node (Ki). - in a receiving node (Kn) of these nodes, from at least one transmitting other node (Ki, i≠n) of such nodes, a global time (gci, i≠n) of the transmitting node (Ki, i≠n) of the nodes, which global time is transmitted by this transmitting node (Ki, i≠n) of the nodes, is received, - depending on both the received global time (gci, i≠n) of the transmitting node (Ki, i≠n) and a local time (lcn) of the own local clock (LCn) of the receiving node (Kn), a global time (gcn) of this receiving node (Kn) is determined or estimated by a control unit, and - the determined or estimated global time (gcn) of the receiving node (Kn) is transmitted to the at least one transmitting node (Ki, i≠n), wherein, in the at least one transmitting node (Ki, i≠n) of the nodes, depending on both the received global time (gcn) of the receiving node (Kn) and a local time (lci) of the own local clock (LCi), a global time (gci) of this transmitting node (Ki, i≠n) is determined or estimated by a control unit, characterized in that, in the node (Kn), a deviation measure (vn) between the own global time (gcn) and the own local time (Icn) and/or between the own global time (gcn) and the global time or times (gci) received from the other node or from the other nodes is determined or estimated, wherein, in the determination or estimation of the global time (gcn), the node (Kn) uses a deviation measure (vi) of a received global time (gci) of another such node (Ki).
Apparatus for generating a motion of a tool, in particular for the work on biological cell material, comprising at least one actuator element, a control device comprising electric circuitry, which controls the actuation by the at least one actuator element, an actuated member, which is elastically deformable, and a motion section, at which a tool can be arranged and which is linked to the actuated member, wherein the actuated member is an elongated part extending lengthwise along a central axis and wherein the at least one actuator element is linked at least at a first position and at a second position to the actuated member to act by a linear motion between said first position and said second position along a second axis, which is parallel or coaxial to the central axis, such that a motion of the motion section, which is caused by a length change of the actuated member upon actuation by the at least one actuator element, is linear and is coaxial or in parallel to said central axis, and wherein said first position and said second position define a straight distance, which is parallel or coaxial with the central axis, the at least one actuator element being arranged such as to act along said straight distance to generate a linear motion of the at least one actuator element in parallel to said straight distance, the at least one actuator element being linked to the actuated member such that an actuation action by the at least one actuator element elastically deforms the actuated member by a distance, which corresponds to a length change of the actuated member, wherein the value of the first length change of the at least one actuator element, which performs one actuation action controlled by the control device, and the value of the second length change of the actuated member, which is caused by the first length change of the at least one actuator element, are the same, wherein said length change causes said motion of the motion section and the amplitude of the motion equals said length change.
An engineered RNA-guided endonuclease complex which comprises: a guide RNA comprising (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, which comprises from about 10 nucleotides to more than about 25 nucleotides, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, wherein (i), (ii) and (iii) are arranged in the 5' to 3' direction, and the guide RNA comprises two separate molecules, wherein a protein-RNA complex is formed between the guide RNA and a type II CRISPR/Cas9 protein, which further comprises a nuclear localization signal, and the guide RNA interacts with the type II CRISPR/Cas9 protein to guide the protein to the specific target site. a guide RNA comprising (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, which comprises from about 10 nucleotides to more than about 25 nucleotides, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, wherein (i), (ii) and (iii) are arranged in the 5' to 3' direction, and the guide RNA comprises two separate molecules, (i) a first region complementary to a target site in a eukaryotic chromosomal sequence that can base pair with the target site, which comprises from about 10 nucleotides to more than about 25 nucleotides, (ii) a second region that forms a stem and loop structure, and (iii) a third region which is essentially single stranded, wherein (i), (ii) and (iii) are arranged in the 5' to 3' direction, and the guide RNA comprises two separate molecules, wherein a protein-RNA complex is formed between the guide RNA and a type II CRISPR/Cas9 protein, which further comprises a nuclear localization signal, and the guide RNA interacts with the type II CRISPR/Cas9 protein to guide the protein to the specific target site.