mhurhangee/ep-ind-claims huggingface dataset:
Method of providing conductive structures between two foils in a multi-foil system, the multi-foil system comprising at least two flexible multi-layer foil devices, at least one of the multi-layer devices comprising a flexible laminated electronic or optic functional foil comprising at least one terminal and a functional circuit connected to the terminal, the method comprising the steps of: - providing at least one solid state adhesive layer on a foil of one of the multi-layer devices; - patterning the adhesive layer with through-holes; - filling the through-holes with conductive material, so as to form the conductive structure, connected to the terminal; and - bonding the adhesive layer to another foil of another multi-layer device so as to mechanically and electronically connect the multi-layer devices, wherein the step of patterning the adhesive layer may be carried out before or after the adhesive layer is provided on the foil. - providing at least one solid state adhesive layer on a foil of one of the multi-layer devices; - patterning the adhesive layer with through-holes; - filling the through-holes with conductive material, so as to form the conductive structure, connected to the terminal; and - bonding the adhesive layer to another foil of another multi-layer device so as to mechanically and electronically connect the multi-layer devices, wherein the step of patterning the adhesive layer may be carried out before or after the adhesive layer is provided on the foil.
A composition comprising therapeutically effective amounts of (i) one or more of uridine and cytidine, or salts, phosphates, acyl derivatives or esters thereof, (ii) at least one of docosahexaenoic acid (22:6; DHA), eicosapentaenoic acid (20:5; EPA) and docosapentaenoic acid (22:5; DPA), or esters thereof, (iii) choline, or salts or esters thereof, for use in therapeutically treating or preventing global developmental delay in a child, wherein said composition comprises: (i) 10 - 200 mg uridine monophosphate per 100 kcal or per 100 ml; and (ii) 250 - 9000 mg DHA + EPA per 100 kcal or per 100 ml; and (iii) 60 - 350 mg choline per 100 kcal or per 100 ml; and (iv) 1 - 5 μg vitamin B12 or equivalents per 100 kcal or per 100 ml, and (v) per 100 kcal or per 100 ml, 60 - 150 μg of iodine and 5-25 mg of zinc. (i) 10 - 200 mg uridine monophosphate per 100 kcal or per 100 ml; and (ii) 250 - 9000 mg DHA + EPA per 100 kcal or per 100 ml; and (iii) 60 - 350 mg choline per 100 kcal or per 100 ml; and (iv) 1 - 5 μg vitamin B12 or equivalents per 100 kcal or per 100 ml, and (v) per 100 kcal or per 100 ml, 60 - 150 μg of iodine and 5-25 mg of zinc.
A covering for an architectural opening including a head rail with a tilt controller for controlling a tilt of blind slats suspended from the head rail, the tilt controller including: a rotatable tape spool having an outer circumference with a tapered groove extending therearound and extending radially inwardly; a support wedge having opposite ends (42, 44) and, between the opposite ends (42, 44), having an arcuate extent fitting within and for frictional engagement with the tapered groove; a flexible support having a connection to the support wedge and extending either diametric side of the tape spool to support opposite respective edges of the blind slats; characterized in that: the flexible support extends from the connection and between the support wedge and the tape spool so that the flexible support runs underneath the support wedge. a rotatable tape spool having an outer circumference with a tapered groove extending therearound and extending radially inwardly; a support wedge having opposite ends (42, 44) and, between the opposite ends (42, 44), having an arcuate extent fitting within and for frictional engagement with the tapered groove; a flexible support having a connection to the support wedge and extending either diametric side of the tape spool to support opposite respective edges of the blind slats; characterized in that: the flexible support extends from the connection and between the support wedge and the tape spool so that the flexible support runs underneath the support wedge. the flexible support extends from the connection and between the support wedge and the tape spool so that the flexible support runs underneath the support wedge.
A vehicle, wherein the vehicle comprises: a body, a first wheel axle and a second wheel axle, whereon one or more wheels (30, 40) is/are mounted, an electric motor and a control unit; and wherein the electric motor is connected to the second wheel axle; and wherein the electric motor is configured for driving the one or more wheels that is/are mounted on the second wheel axle, wherein the vehicle is a part of a toy building set comprising toy building elements, wherein the toy building elements comprise complementary coupling means that are preferably placed in a modular two-dimensional pattern; and wherein the toy building elements can be interconnected to form a structure, characterised in that the vehicle comprises a movement detection unit configured for detecting a movement in the form of a rotation of the vehicle's wheels (30, 40) and/or wheel axles (31, 41); and wherein the control unit is configured for receiving a signal from the movement detection unit when it detects a movement of the vehicle; and wherein the control unit is configured for starting the electric motor when the movement detection unit detects a movement in the form of a rotation of the vehicle's wheels to the effect that the electric motor continuously powers the one or more wheels.
A method of wireless communication performed by an apparatus, comprising: transmitting a transport block, TB, to a receiver, the TB comprising a plurality of code blocks, CBs, grouped into a plurality of code block groups, CBGs; receiving a hybrid automatic repeat request, HARQ, feedback from the receiver based on a predetermined HARQ feedback scheme, the HARQ feedback configured to indicate a reception error of one or more CBGs of the TB; determining a retransmission indication mechanism based on the predetermined HARQ feedback scheme; transmitting a retransmission indication to identify one or more of the CBs in the one or more CBGs indicated with a reception error based on the retransmission indication mechanism wherein the transmitting the retransmission indication comprises: transmitting a first part of the retransmission indication in a first DCI in a control channel; and transmitting a second part of the retransmission indication in a second DCI in a data channel; and retransmitting the one or more CBs based on the HARQ feedback. transmitting a transport block, TB, to a receiver, the TB comprising a plurality of code blocks, CBs, grouped into a plurality of code block groups, CBGs; receiving a hybrid automatic repeat request, HARQ, feedback from the receiver based on a predetermined HARQ feedback scheme, the HARQ feedback configured to indicate a reception error of one or more CBGs of the TB; determining a retransmission indication mechanism based on the predetermined HARQ feedback scheme; transmitting a retransmission indication to identify one or more of the CBs in the one or more CBGs indicated with a reception error based on the retransmission indication mechanism wherein the transmitting the retransmission indication comprises: transmitting a first part of the retransmission indication in a first DCI in a control channel; and transmitting a second part of the retransmission indication in a second DCI in a data channel; and retransmitting the one or more CBs based on the HARQ feedback. transmitting a first part of the retransmission indication in a first DCI in a control channel; and transmitting a second part of the retransmission indication in a second DCI in a data channel; and retransmitting the one or more CBs based on the HARQ feedback.
A method for generating encrypted data, comprising: combining, by an electronic circuit, a cryptographic key with state initialization bits to generate first combination bits; producing a first keystream by performing a permutation function f using the first combination bits as inputs thereto, the permutation function f comprising a round function f round that is iterated R times, the round function f round consisting of 1) a substitution layer in which the first combination bits are substituted with substitute bits, 2) a permutation layer in which the substitute bits are re-arranged, 3) a mixing layer in which at least two outputs of the permutation layer are combined together, and 4) an addition layer in which a constant is added to the output of the mixing layer; and using, by the electronic circuit, the first keystream to encrypt first data so as to produce first encrypted data; wherein the substitution layer comprises a plurality of identical substitution boxes, hereinafter S-boxes (402 1,..., 402 32), which collectively receive N input bits and individually receive X bits of the N input bits, wherein N is a customizable value; and wherein each bit (402 1,..., 402 32) permutes to an output bit position different from its input bit position, all outputs of a given S-box (402 1,..., 402 32) go to X different mixers, a permutation period of the permutation function f exceeds the number of rounds R. combining, by an electronic circuit, a cryptographic key with state initialization bits to generate first combination bits; producing a first keystream by performing a permutation function f using the first combination bits as inputs thereto, the permutation function f comprising a round function f round that is iterated R times, the round function f round consisting of 1) a substitution layer in which the first combination bits are substituted with substitute bits, 2) a permutation layer in which the substitute bits are re-arranged, 3) a mixing layer in which at least two outputs of the permutation layer are combined together, and 4) an addition layer in which a constant is added to the output of the mixing layer; and 1) a substitution layer in which the first combination bits are substituted with substitute bits, 2) a permutation layer in which the substitute bits are re-arranged, 3) a mixing layer in which at least two outputs of the permutation layer are combined together, and 4) an addition layer in which a constant is added to the output of the mixing layer; and using, by the electronic circuit, the first keystream to encrypt first data so as to produce first encrypted data; wherein the substitution layer comprises a plurality of identical substitution boxes, hereinafter S-boxes (402 1,..., 402 32), which collectively receive N input bits and individually receive X bits of the N input bits, wherein N is a customizable value; and wherein each bit (402 1,..., 402 32) permutes to an output bit position different from its input bit position, all outputs of a given S-box (402 1,..., 402 32) go to X different mixers, a permutation period of the permutation function f exceeds the number of rounds R.
A metal melting furnace vortex chamber body with a vortex chamber communicating with a storage space of a furnace body having the storage space storing molten metal, the metal melting furnace vortex chamber body comprising: a communicating opening (2C1 + 2C2) formed in a part of a side wall, the vortex chamber of the vortex chamber body and the storage space of the furnace body being communicated through the communicating opening (2C1 + 2C2), and a partition plate which is made of flat plate and is uprightly arranged inside the vortex chamber of the vortex chamber body, wherein the partition plate is disposed at a communication side (2C0) with respect to the storage space in the vortex chamber so that the longitudinal direction of the partition plate follows the communication direction and divides the communication side (2C0) so as to form first and second vortex chamber openings (2C1,2C2) positioned at both sides of the partition plate and communicating with both the storage space and the vortex chamber, and wherein a gap is formed between a front end portion of the partition plate positioned at the inside of the vortex chamber in the longitudinal direction and an inner wall of the vortex chamber body facing the front end portion, and wherein the partition plate is detachable from the vortex chamber, communicating opening (2C1 + 2C2) being reappeared by removing the partition plate so that the vortex chamber of the vortex chamber body and the storage space of the furnace body being communicated through the communicating opening (2C1 + 2C2). a communicating opening (2C1 + 2C2) formed in a part of a side wall, the vortex chamber of the vortex chamber body and the storage space of the furnace body being communicated through the communicating opening (2C1 + 2C2), and a partition plate which is made of flat plate and is uprightly arranged inside the vortex chamber of the vortex chamber body, wherein the partition plate is disposed at a communication side (2C0) with respect to the storage space in the vortex chamber so that the longitudinal direction of the partition plate follows the communication direction and divides the communication side (2C0) so as to form first and second vortex chamber openings (2C1,2C2) positioned at both sides of the partition plate and communicating with both the storage space and the vortex chamber, and wherein a gap is formed between a front end portion of the partition plate positioned at the inside of the vortex chamber in the longitudinal direction and an inner wall of the vortex chamber body facing the front end portion, and wherein the partition plate is detachable from the vortex chamber, communicating opening (2C1 + 2C2) being reappeared by removing the partition plate so that the vortex chamber of the vortex chamber body and the storage space of the furnace body being communicated through the communicating opening (2C1 + 2C2).
A method of making a lead for a stimulation device comprising: forming at least one pre-electrode in the shape of a ring, the at least one pre-electrode comprises at least two thin-walled portions separated by at least two thick-walled portions; disposing the at least one pre-electrode near a distal end of a lead body; joining at least one conductor to each thick-walled portion of the at least one pre-electrode; and characterized by grinding the lead body and the at least one pre-electrode to remove the thin-walled portions of the at least one pre-electrode to form a plurality of segmented electrodes from the thick-walled portions of the at least one pre-electrode. forming at least one pre-electrode in the shape of a ring, the at least one pre-electrode comprises at least two thin-walled portions separated by at least two thick-walled portions; disposing the at least one pre-electrode near a distal end of a lead body; joining at least one conductor to each thick-walled portion of the at least one pre-electrode; and characterized by grinding the lead body and the at least one pre-electrode to remove the thin-walled portions of the at least one pre-electrode to form a plurality of segmented electrodes from the thick-walled portions of the at least one pre-electrode.
A laundry machine comprising: - a cabinet; - a first tub part (20; 120; 220; 320) having at least predetermined portion directly connected to the cabinet; - a second tub part (30; 130; 230; 330) provided underneath and connected to the first tub part (20; 120; 220; 320) in such a way that the second tub part is relatively movable with respect to the first tub part (20; 120; 220; 320), wherein the second tub part (30; 130; 230; 330) receiving wash water together with the first tab part (20; 120; 220; 320); and - a drum rotatable about a vertical shaft within the first and second tub parts, wherein the first tub part (20; 120; 220; 320) is connected to the second tub part (30; 130; 230; 330) via a vibration transmission preventing member (22, 122, 222, 324). - a cabinet; - a first tub part (20; 120; 220; 320) having at least predetermined portion directly connected to the cabinet; - a second tub part (30; 130; 230; 330) provided underneath and connected to the first tub part (20; 120; 220; 320) in such a way that the second tub part is relatively movable with respect to the first tub part (20; 120; 220; 320), wherein the second tub part (30; 130; 230; 330) receiving wash water together with the first tab part (20; 120; 220; 320); and - a drum rotatable about a vertical shaft within the first and second tub parts,
A seal assembly comprising: a shaft rotatable about a central longitudinal axis; a housing at least partially defining a seal opening and at least partially surrounding the rotatable shaft; and a carbon seal located at least partially in the seal opening and including a sealing surface, wherein the housing and the carbon seal form a circumferential ring around the rotatable shaft; the rotatable shaft including a radially facing radially outer surface having a diamond-like carbon coating in engagement with the sealing surface on the carbon seal; characterized in that the radially outer surface has a carbide based coating in direct contact with the radially outer surface and the diamond-like carbon coating is in direct contact with the carbide based coating. a shaft rotatable about a central longitudinal axis; a housing at least partially defining a seal opening and at least partially surrounding the rotatable shaft; and a carbon seal located at least partially in the seal opening and including a sealing surface, wherein the housing and the carbon seal form a circumferential ring around the rotatable shaft; the rotatable shaft including a radially facing radially outer surface having a diamond-like carbon coating in engagement with the sealing surface on the carbon seal; characterized in that the radially outer surface has a carbide based coating in direct contact with the radially outer surface and the diamond-like carbon coating is in direct contact with the carbide based coating.
A developing device comprising: a housing; a developer carrier which is rotatably supported by the housing, and which is configured to carry developer on a circumferential surface thereof; and a layer thickness regulating member which includes: a blade configured to contact the circumferential surface of the developer carrier along a rotational axial direction of the developer carrier; and a support member supporting the blade, the layer thickness regulating member being configured to regulate a layer thickness of the developer on the circumferential surface of the developer carrier, wherein the support member is bent into substantially a right angle about a bending portion and includes a first support part, which is located at one side with respect to the bending portion, and a second support part, which is located at the other side with respect to the bending portion, wherein the first support part contacts the blade, wherein the support member includes a pair of attachment parts formed with attachment holes which are attached by screws to the housing, and wherein the attachment parts are provided at both end portions of the first support part in the rotational axial direction and protrude from an upper end edge of the first support part to an upper side in a radial direction away from the developer carrier so that a front side face of each attachment part is flush with a front side face of the first support part and a back side face of each attachment part is flush with a back side face of the first support part, characterized in that the screws are positioned above an upper edge of the blade such that the screws are not contacted to the blade. a housing; a developer carrier which is rotatably supported by the housing, and which is configured to carry developer on a circumferential surface thereof; and a layer thickness regulating member which includes: a blade configured to contact the circumferential surface of the developer carrier along a rotational axial direction of the developer carrier; and a support member supporting the blade, the layer thickness regulating member being configured to regulate a layer thickness of the developer on the circumferential surface of the developer carrier, a blade configured to contact the circumferential surface of the developer carrier along a rotational axial direction of the developer carrier; and a support member supporting the blade, the layer thickness regulating member being configured to regulate a layer thickness of the developer on the circumferential surface of the developer carrier,
A vented gaiter for mounting to a shaft, the gaiter comprising: a rim defining an opening for receiving the shaft; and a venting element, wherein the venting element is disposed within said opening, wherein the venting element comprises a gas-permeable liquid-impermeable membrane, characterised in that said membrane is oleophobic, in that the vented gaiter further comprises a baffle element configured, in use, to at least partially inhibit progress of lubricant from inside the gaiter towards the venting element, wherein the baffle element is gas-permeable, wherein the baffle element extends radially and within a convolution defined on an inner side of the gaiter. a rim defining an opening for receiving the shaft; and a venting element, wherein the venting element is disposed within said opening, wherein the venting element comprises a gas-permeable liquid-impermeable membrane, characterised in that said membrane is oleophobic, in that the vented gaiter further comprises a baffle element configured, in use, to at least partially inhibit progress of lubricant from inside the gaiter towards the venting element, wherein the baffle element is gas-permeable, wherein the baffle element extends radially and within a convolution defined on an inner side of the gaiter.